Tissue layer region of coral pre-treated with 50% hydrogen peroxide and subsequently ultrasonically rinsed. Ledge sampled every 0.25 mm using a 2 mm diameter drill bit. SrCa replication reproducibility better than 0.2% (Alibert & McCulloch 1997).
Tissue layer region of coral pre-treated with 50% hydrogen peroxide and subsequently ultrasonically rinsed. Ledge sampled every 0.25 mm using a 2 mm diameter drill bit. SrCa replication reproducibility better than 0.2% (Alibert & McCulloch 1997).
Tissue layer region of coral pre-treated with 50% hydrogen peroxide and subsequently ultrasonically rinsed. Ledge sampled every 0.25 mm using a 2 mm diameter drill bit. SrCa replication reproducibility better than 0.2% (Alibert & McCulloch 1997).
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. Ledge sampled every 0.25 mm. SrCa reproducibility of seawater with ID-TIMS was better than 0.15%.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. Ledge sampled every 0.25 mm. SrCa reproducibility of seawater with ID-TIMS was better than 0.15%.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. Ledge sampled every 0.25 mm. SrCa reproducibility of seawater with ID-TIMS was better than 0.15%.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard. BaCa corrected against NIST 614 standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard. BaCa corrected against NIST 614 standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard. BaCa corrected against NIST 614 standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard. BaCa corrected against NIST 614 standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard. MnCa corrected against NIST 614 standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard. MnCa corrected against NIST 614 standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard. MnCa corrected against NIST 614 standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements. In-house pressed-powder coral standard and NIST 614 glass standard.
Pre-treated with concentrated hydrogen peroxide to remove organics and subsequently ultrasonically rinsed. 500 x 50 μm rectangular laser beam is scanned along the coral growth axis at 2 mm per min with first scan at 5 Hz and then the second scan at 20 Hz pulse rate for different trace elements and isotopes. See Table 1 in Alibert et al. (2003) for standards measurements.
Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit.
Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: BaCa = 0.92%.
Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: MgCa = 0.62%.
Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: SrCa = 0.24%.
Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: UCa = 0.76%.
Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: YCa = 2.02%.
Slice section containing the tissue layer was pre-treated with 10% hydrogen peroxide for 24 hr and subsequently ultrasonically rinsed and oven dried. Ledge sampled continuously every 0.3-0.5 mm using a 2 mm drill bit.
Slice section containing the tissue layer was pre-treated with 10% hydrogen peroxide for 24 hr and subsequently ultrasonically rinsed and oven dried. Ledge sampled continuously every 0.3-0.5 mm using a 2 mm drill bit. JCp-1 reproducibility: MgCa = 0.7%.
Slice section containing the tissue layer was pre-treated with 10% hydrogen peroxide for 24 hr and subsequently ultrasonically rinsed and oven dried. Ledge sampled continuously every 0.3-0.5 mm using a 2 mm drill bit. JCp-1 reproducibility: SrCa = 0.5%.
Slice section containing the tissue layer was pre-treated with 10% hydrogen peroxide for 24 hr and subsequently ultrasonically rinsed and oven dried. Ledge sampled continuously every 0.3-0.5 mm using a 2 mm drill bit.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. Notable level of diagenetic alteration observed by SEM.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods as per Lewis et al. (2012) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
Single bands were cut using a hand drill operated small diamond wheel. No analytical precision information available.
Single bands were cut using a hand drill operated small diamond wheel. No analytical precision information available.
Single bands were cut using a hand drill operated small diamond wheel. No analytical precision information available.
Single bands were cut using a hand drill operated small diamond wheel. No analytical precision information available.
0.5 mm interval for 35-40 per year. d18O relative to Vienna Peedee Belemnite.
0.5 mm interval for 35-40 per year. d18O relative to Vienna Peedee Belemnite.
0.5 mm interval for 35-40 per year.
0.5 mm interval for 35-40 per year. d18O relative to Vienna Peedee Belemnite.
0.5 mm interval for 35-40 per year. d18O relative to Vienna Peedee Belemnite.
0.5 mm interval for 35-40 per year.
0.5 mm interval for 35-40 per year. d18O relative to Vienna Peedee Belemnite.
0.5 mm interval for 35-40 per year. d18O relative to Vienna Peedee Belemnite.
0.5 mm interval for 35-40 per year.
Sampled every 0.5 mm but only every other sample tested for 1 mm spacing (approx. 20 samples per year). d18O relative to Vienna Peedee Belemnite.
Sampled every 0.5 mm but only every other sample tested for 1 mm spacing (approx. 20 samples per year). d18O relative to Vienna Peedee Belemnite.
Sampled every 0.5 mm but only every other sample tested for 1 mm spacing (approx. 20 samples per year).
0.5 mm interval for 35-40 per year. d18O relative to Vienna Peedee Belemnite.
0.5 mm interval for 35-40 per year. d18O relative to Vienna Peedee Belemnite.
0.5 mm interval for 35-40 per year.
Continuous 5-year intervals. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard.
Continuous 5-year intervals. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. Reproducibility: d18O = 0.02 permil.
Continuous 5-year intervals. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. Reproducibility: SrCa = 0.02%.
3-5 samples per year at 0.5-1.5 mm resolution to collect approx. 1 mg of powder. Sampled using slow speed drilling and a needle file in later phases. Measurements relative to foram control and 2 marble standards. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution to collect approx. 1 mg of powder. Sampled using slow speed drilling and a needle file in later phases. Measurements relative to foram control and 2 marble standards. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution to collect approx. 1 mg of powder. Sampled using slow speed drilling and a needle file in later phases. Measurements relative to foram control and 2 marble standards. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution to collect approx. 1 mg of powder. Sampled using slow speed drilling and a needle file in later phases. Measurements relative to foram control and 2 marble standards. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution to collect approx. 1 mg of powder. Sampled using slow speed drilling and a needle file in later phases. Measurements relative to foram control and 2 marble standards. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution. Sampled using slow speed drilling and a needle file in later phases. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution. Sampled using slow speed drilling and a needle file in later phases. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution. Sampled using slow speed drilling and a needle file in later phases. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution. Sampled using slow speed drilling and a needle file in later phases. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
3-5 samples per year at 0.5-1.5 mm resolution. Sampled using slow speed drilling and a needle file in later phases. Methods as per Chakraborty & Ramesh (1993; 1997). No analytical precision information supplied.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. NBS-19 standard reproducibility: d13C = 0.05 permil.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. NBS-19 standard reproducibility: d18O = 0.08 permil.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. In house standard reproducibility: MgCa = 0.3%.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. In house standard reproducibility: SrCa = 0.16%.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. NBS-19 standard reproducibility: d13C = 0.05 permil.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. NBS-19 standard reproducibility: d18O = 0.08 permil.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. In house standard reproducibility: MgCa = 0.3%.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard. In house standard reproducibility: SrCa = 0.16%.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard.
Ultrasonically cleaned and oven dried. Annual intervals from sampling grooves. Isotope data normalised to Vienna Pee Dee Belemnite using NBS-19 standard.
Annual bands (determined from beginning of each high density band) were milled along the maximum growth axis. Samples were pre-treated with sodium hypochlorite to remove organics. +0.45 permil correction was applied to MC-ICP-MS data for consistency of comparison with PTIMS data. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each high density band) were milled along the maximum growth axis. Samples were pre-treated with sodium hypochlorite to remove organics. +0.45 permil correction was applied to MC-ICP-MS data for consistency of comparison with PTIMS data. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each luminescent band) were milled along the maximum growth axis. Samples were pre-treated with hydrogen peroxide to remove organics. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each luminescent band) were milled along the maximum growth axis. Samples were pre-treated with hydrogen peroxide to remove organics. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each luminescent band) were milled along the maximum growth axis. Samples were pre-treated with sodium hypochlorite to remove organics. +0.45 permil correction was applied to MC-ICP-MS data for consistency of comparison with PTIMS data. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each luminescent band) were milled along the maximum growth axis. Samples were pre-treated with sodium hypochlorite to remove organics. +0.45 permil correction was applied to MC-ICP-MS data for consistency of comparison with PTIMS data. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each luminescent band) were milled along the maximum growth axis. Samples were pre-treated with hydrogen peroxide to remove organics. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each luminescent band) were milled along the maximum growth axis. Samples were pre-treated with hydrogen peroxide to remove organics. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each luminescent band) were milled along the maximum growth axis. Samples were pre-treated with hydrogen peroxide to remove organics. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each luminescent band) were milled along the maximum growth axis. Samples were pre-treated with hydrogen peroxide to remove organics. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each high density band) were milled along the maximum growth axis. Samples were pre-treated with hydrogen peroxide to remove organics. d11B relative to the NBS 951 boric acid international standard.
Annual bands (determined from beginning of each high density band) were milled along the maximum growth axis. Samples were pre-treated with hydrogen peroxide to remove organics. d11B relative to the NBS 951 boric acid international standard.
Bimonthly resolution (approx. 6 samples per year) for d11B from 1989-1992 and 1997-2000. Powder samples treated with 30% hydrogen peroxide to remove organics. Analytical precision reported for NEP lab standard. SrCa JCp-1 value not reported.
Bimonthly resolution (approx. 6 samples per year) for d11B from 1989-1992 and 1997-2000. Powder samples treated with 30% hydrogen peroxide to remove organics. A -0.45 permil correction was applied to PTIMS data for consistency of comparison with MC-ICP-MS data. Analytical precision reported for NEP B lab standard.
Bimonthly resolution (approx. 6 samples per year) for d11B from 1989-1992 and 1997-2000. Powder samples treated with 30% hydrogen peroxide to remove organics. A -0.45 permil correction was applied to PTIMS data for consistency of comparison with MC-ICP-MS data. Analytical precision reported for NEP B lab standard.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP lab standard. SrCa JCp-1 value not reported.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP lab standard.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP B.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP lab standard.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP lab standard.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP lab standard.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP lab standard.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP lab standard.
Bimonthly resolution (approx. 7 samples per year). Analytical precision reported for NEP lab standard.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP lab standard. SrCa JCp-1 value not reported.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP lab standard.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP B.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP lab standard.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP lab standard.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP lab standard.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP lab standard.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP lab standard.
Better than monthly resolution (approx. 14 samples per year). Analytical precision reported for NEP lab standard.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP lab standard.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP lab standard.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP B.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP lab standard.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP lab standard.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP lab standard.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP lab standard.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP lab standard.
Better than bimonthly resolution (approx. 10 samples per year). Analytical precision reported for NEP lab standard.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for JCp-1.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
Subsampled the axis of maximum growth using a micromill with a 3 mm drill bit, at 7-8 samples per year or better than bimonthly resolution. Analytical precision reported for Davies Reef coral standard solution.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
400 μm wide and 40 μm long slit, with a scan rate of 40 μm/s using 5 Hz pulse rate. Data smoothed with an 8-point running average. NIST 614 glass standard and Davies Reef in-house coral standard.
Bulk sampled. Bands were cut on the leading edge of the high-density bands.
Bulk sampled. Bands were cut on the leading edge of the high-density bands.
Seasonal (seven samples per year) and annual samples were drilled using a diamond-tipped drill bit mounted on a Dremel tool.
Seasonal (seven samples per year) and annual samples were drilled using a diamond-tipped drill bit mounted on a Dremel tool.
Seasonal (seven samples per year) and annual samples were drilled using a diamond-tipped drill bit mounted on a Dremel tool. Total uncertainties for D14C measured by gas counting is 2.5 - 3 permil.
Seasonal (seven samples per year) and annual samples were drilled using a diamond-tipped drill bit mounted on a Dremel tool.
Seasonal (seven samples per year) and annual samples were drilled using a diamond-tipped drill bit mounted on a Dremel tool. Total uncertainties for D14C measured by gas counting and AMS is 2.5 - 3 permil and 2.8 - 4 permil respectively.
Bulk sampled. Bands were cut on the leading edge of the high-density bands.
Bulk sampled. Bands were cut on the leading edge of the high-density bands. Total uncertainties for D14C measured by gas counting is 2.5 - 3 permil.
Bulk sampled. Bands were cut on the leading edge of the high-density bands.
Bulk sampled. Bands were cut on the leading edge of the high-density bands. Total uncertainties for D14C measured by gas counting and AMS is 2.5 - 3 permil and 2.8 - 4 permil respectively.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. Ba138Ca calibrated against coral standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. BaCa calibrated against coral standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. BCa calibrated against coral standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. Calibrated against NIST 614 standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. Calibrated against NIST 614 standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. Calibrated against NIST 614 standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. MgCa calibrated against coral standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. Calibrated against NIST 614 standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. Calibrated against NIST 614 standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. Calibrated against NIST 614 standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. SrCa calibrated against coral standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. UCa calibrated against coral standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
Ablation using a rectangular sample area with a 40 × 400 μm resolution at a speed of 40 μm per second. NIST 614 and in-house pressed coral standards. Calibrated against NIST 614 standard. The Ellis et al. (2019) data was smoothed with a 10-point running mean and was further smoothed with a 10-point mean for archiving in the GBRCD. SEM diagenesis check was on an alternate slice of PET12.
5-10 mg was drilled from each annual high and low density band with a hand held drill. Isotope values calibrated to Vienna Peedee Belemnite and NBS-19 carbonate standard. Density, Extn & Calcn measured by AIMS densitometer as per De'ath et al. (2009).
5-10 mg was drilled from each annual high and low density band with a hand held drill. Isotope values calibrated to Vienna Peedee Belemnite and NBS-19 carbonate standard.
5-10 mg was drilled from each annual high and low density band with a hand held drill. Isotope values calibrated to Vienna Peedee Belemnite and NBS-19 carbonate standard.
5-10 mg was drilled from each annual high and low density band with a hand held drill. Density, Extn & Calcn measured by AIMS densitometer as per De'ath et al. (2009).
5-10 mg was drilled from each annual high and low density band with a hand held drill. Density, Extn & Calcn measured by AIMS densitometer as per De'ath et al. (2009).
5-10 mg was drilled from each annual high and low density band with a hand held drill. Density, Extn & Calcn measured by AIMS densitometer as per De'ath et al. (2009).
Approx. 100 mg collected from coral central growth axis using a small drill and a 2 mm diameter carbide engraving bit. Samples were collected from each high and each low density band. Additional samples were collected from the low density bands where extension >10 mm (i.e. minimum of two and maximum of three samples per year of growth).
Approx. 100 mg collected from coral central growth axis using a small drill and a 2 mm diameter carbide engraving bit. Samples were collected from each high and each low density band. Additional samples were collected from the low density bands where extension >10 mm (i.e. minimum of two and maximum of three samples per year of growth).
Approx. 100 mg collected from coral central growth axis using a small drill and a 2 mm diameter carbide engraving bit. Samples were collected from each high and each low density band. Additional samples were collected from the low density bands where extension >10 mm (i.e. minimum of two and maximum of three samples per year of growth).
Approx. 100 mg collected from coral central growth axis using a small drill and a 2 mm diameter carbide engraving bit. Samples were collected from each high and each low density band. Additional samples were collected from the low density bands where extension >10 mm (i.e. minimum of two and maximum of three samples per year of growth).
Approx. 100 mg collected from coral central growth axis using a small drill and a 2 mm diameter carbide engraving bit. Samples were collected from each high and each low density band. Additional samples were collected from the low density bands where extension >10 mm (i.e. minimum of two and maximum of three samples per year of growth).
Approx. 100 mg collected from coral central growth axis using a small drill and a 2 mm diameter carbide engraving bit. Samples were collected from each high and each low density band. Additional samples were collected from the low density bands where extension >10 mm (i.e. minimum of two and maximum of three samples per year of growth).
Approx. 100 mg collected from coral central growth axis using a small drill and a 2 mm diameter carbide engraving bit. Samples were collected from each high and each low density band. Additional samples were collected from the low density bands where extension >10 mm (i.e. minimum of two and maximum of three samples per year of growth).
Approx. 100 mg collected from coral central growth axis using a small drill and a 2 mm diameter carbide engraving bit. Samples were collected from each high and each low density band. Additional samples were collected from the low density bands where extension >10 mm (i.e. minimum of two and maximum of three samples per year of growth).
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Laser 50 x 500 μm rectangle on the coral surface; discretely averaged at approx. 0.25 mm. Pressed coral powder standard.
Sampled continuously every 0.25 mm using the ANU ledging method and every second sample was analysed (approx. 25 per year). Data was filtered with a 2-point running mean. TIMS measurement calibrated via ANU in-house standards. Calibrated to Pee Dee Belemnite (NBS-19).
Sampled continuously every 0.25 mm using the ANU ledging method and every second sample was analysed (approx. 25 per year). Data was filtered with a 2-point running mean. d18O calibrated to Pee Dee Belemnite (NBS-19).
Sampled continuously every 0.25 mm using the ANU ledging method and every second sample was analysed (approx. 25 per year). Data was filtered with a 2-point running mean. TIMS measurement calibrated via ANU in-house standards.
Sampled continuously every 0.25 mm using the ANU ledging method and every second sample was analysed (approx. 25 per year). Data was filtered with a 2-point running mean. d18O calibrated to Pee Dee Belemnite (NBS-19).
Five-year bulk increments milled from 2 mm sampling grooves. Diagenesis check information from Hendy et al. (2007).
Five-year bulk increments milled from 2 mm sampling grooves. Diagenesis check information from Hendy et al. (2007).
Five-year bulk increments milled from 2 mm sampling grooves. Diagenesis check information from Hendy et al. (2007).
Five-year bulk increments milled from 2 mm sampling grooves. Diagenesis check information from Hendy et al. (2007).
Five-year bulk increments milled from 2 mm sampling grooves. Diagenesis check information from Hendy et al. (2007).
Visual assessment of luminescent lines. Diagenesis check information from Hendy et al. (2007).
Visual assessment of luminescent lines. Diagenesis check information from Hendy et al. (2007).
Visual assessment of luminescent lines. Diagenesis check information from Hendy et al. (2007).
Visual assessment of luminescent lines. Diagenesis check information from Hendy et al. (2007).
Emitted fluorescence was recorded at 0.452 mm intervals with a 2 mm diameter beam. Diagenesis check information from Hendy et al. (2007).
Emitted fluorescence was recorded at 0.452 mm intervals with a 2 mm diameter beam. Standardised (with respect to long-term mean & SD) fluorescence index 1644-1986.
Emitted fluorescence was recorded at 0.452 mm intervals with a 2 mm diameter beam. Diagenesis check information from Hendy et al. (2007).
Emitted fluorescence was recorded at 0.452 mm intervals with a 2 mm diameter beam. Standardised (with respect to long-term mean & SD) fluorescence index 1737-1980.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Bulk samples were drilled for annual growth periods with 3-5 consecutive years analysed from each decade. No analytical precision data available. Normalised using Mud of Queensland (MUQ) with MUQ values as per Kamber et al. (2005). REEs measured.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
390 λ excitation/490 λ emission was measured at 0.25 mm increments.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
Laser 50 x 500 μm rectangle on the coral surface. 390 λ excitation/490 λ emission was measured at 0.25 mm increments. No analytical precision data available.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Trace element and isotope precision calculated based on internal standard (Pandora coral sample). Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Analysis precision reproducibility calculated on repeat measurements of internal standard (Pandora).
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: BaCa = 4.64%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: d13C = 014 permil.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: d18O = 0.1 permil.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: MgCa = 0.75%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: Mn = 44.72%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: SrCa = 0.22%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. d18O = 0.1 permil.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Trace element and isotope precision calculated based on internal standard (Pandora coral sample). Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Analysis precision reproducibility calculated on repeat measurements of internal standard (Pandora).
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: BaCa = 4.64%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: d13C = 014 permil.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: d18O = 0.1 permil.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: MgCa = 0.75%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: Mn = 44.72%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: SrCa = 0.22%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. d18O = 0.1 permil.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Trace element and isotope precision calculated based on internal standard (Pandora coral sample). Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Analysis precision reproducibility calculated on repeat measurements of internal standard (Pandora).
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: BaCa = 4.64%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: d13C = 014 permil.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: d18O = 0.1 permil.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: MgCa = 0.75%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: Mn = 44.72%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. Reproducibility: SrCa = 0.22%.
Homogenised 5-yearly growth intervals using a stainless steel drill tip on a moveable stage. Powders for trace element analysis were rinsed and then treated with concentrated hydrogen peroxide for 15 min and subsequently rinsed and oven dried. Isotopic powders were not pre-treated with hydrogen peroxide. Isotopes calibrated against an internal lab standard, NBS 18 & NBS 19 and calculated relative to Pee Dee Belemnite. d18O = 0.1 permil.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. Analysis precision reproducibility is calculated for JCp-1 for trace elements (TE) as reported in Lewis et al. (2007) and TE/Ca is as reported in Lewis (2005). Analysis precision reproducibility based on repeat measurements of internal standard (Pandora). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibility: Ba = 1.27%. Trace element reproducibility as reported in Lewis et al. (2007). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibility: BaCa = 1.57%;. Trace element ratio reproducibility as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibility: MgCa = 0.9%. Trace element ratio reproducibility as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibility: Mn = 1.48%. Trace element reproducibility as reported in Lewis et al. (2007). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibility: SrCa = 0.46%. Trace element ratio reproducibility as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: Th = 1.83%. Trace element reproducibility as reported in Lewis et al. (2007). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: UCa = 0.6%. Trace element reproducibility as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: Y = 3.47%. Trace element reproducibility as reported in Lewis et al. (2007). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. Analysis precision reproducibility is calculated for JCp-1 for trace elements (TE) as reported in Lewis et al. (2007) and TE/Ca is as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: Ba = 1.27%. Trace element reproducibility as reported in Lewis et al. (2007). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: BaCa = 1.57%;. Trace element ratio reproducibility as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: MgCa = 0.9%. Trace element ratio reproducibility as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: Mn = 1.48%. Trace element reproducibility as reported in Lewis et al. (2007). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: SrCa = 0.46%. Trace element ratio reproducibility as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: Th = 1.83%. Trace element reproducibility as reported in Lewis et al. (2007). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: UCa = 0.6%. Trace element reproducibility as reported in Lewis (2005). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. JCp-1 reproducibilty: Y = 3.47%. Trace element reproducibility as reported in Lewis et al. (2007). REEs measured.
Sampled at bulk 2-yearly growth increments (biennial resolution) using a stainless steel drill tip on a moveable stage. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Ba138Ca calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BaCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. BCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. MgCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. SrCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. UCa calibrated against coral standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. Calibrated against NIST standard. No analytical precision data available. REEs measured.
LA-ICP-MS methods identical to those in Jupiter et al. (2008) (laser 50 x 500 μm rectangle on the coral surface). Data smoothed to reduce data volume with 10-point running mean and then a further 10-point mean. No analytical precision data available. REEs measured.
Visual assessment of luminescent lines following the methods of Hendy et al. (2003) and Lough (2007).
Visual assessment of luminescent lines following the methods of Hendy et al. (2003) and Lough (2007).
Visual assessment of luminescent lines following the methods of Hendy et al. (2003) and Lough (2007).
Visual assessment of luminescent lines following the methods of Hendy et al. (2003) and Lough (2007).
Visual assessment of luminescent lines following the methods of Hendy et al. (2003) and Lough (2007).
Visual assessment of luminescent lines following the methods of Hendy et al. (2003) and Lough (2007).
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
Slices pre-treated with sodium hypochlorite for 24 hr and subsequently ultrasonically rinsed. LA-ICP-MS laser spot dimension was 50 x 500 μm and laser pulse rate set to 5 Hz. Davies Reef pressed coral standard and NIST-614 glass standard. No analytical precision data available.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
5-10 cm sections were selected for 2000-2006 period and 5 mg was milled at 1 mm increments following sub-annual banding along the primary growth axis using a 1 mm drill bit with hand held Dremel drill and flexible shaft extension. REE and Y normalised using Mud of Queensland (MuQ). REEs measured.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Pre-treated with sodium hypochlorite for 20 hr to remove organics and subsequently ultrasonically rinsed and oven dried the sample. Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Luminescence was measured at 0.25 mm intervals with a 2 mm diameter beam.
Tissue region was pre-treated with hydrogen peroxide for 24-36 hr to oxidise organics and slices subsequently ultrasonically rinsed and dried. Ledge sampled every 0.25 mm.
Tissue region was pre-treated with hydrogen peroxide for 24-36 hr to oxidise organics and slices subsequently ultrasonically rinsed and dried. Ledge sampled every 0.25 mm.
Tissue region was pre-treated with hydrogen peroxide for 24-36 hr to oxidise organics and slices subsequently ultrasonically rinsed and dried. Ledge sampled every 0.25 mm.
Ledge sampled every 0.25 mm. Every second sample analysed generally, but consecutive samples analysed around peaks and troughs.
Ledge sampled every 0.25 mm. Every second sample analysed generally, but consecutive samples analysed around peaks and troughs.
Ledge sampled every 0.25 mm. Every second sample analysed generally, but consecutive samples analysed around peaks and troughs.
Ledge sampled every 0.25 mm. Every second sample analysed generally, but consecutive samples analysed around peaks and troughs.
Ablation using a 50 x 500 μm slit, at 5 Hz, using an energy of 50 MJ with a 50% partial reflecting mirror.
Ablation using a 50 x 500 μm slit, at 5 Hz, using an energy of 50 MJ with a 50% partial reflecting mirror.
Ablation using a 50 x 500 μm slit, at 5 Hz, using an energy of 50 MJ with a 50% partial reflecting mirror.
Ablation using a 50 x 500 μm slit, at 5 Hz, using an energy of 50 MJ with a 50% partial reflecting mirror.
Ablation using a 50 x 500 μm slit, at 5 Hz, using an energy of 50 MJ with a 50% partial reflecting mirror.
Ablation using a 50 x 500 μm slit, at 5 Hz, using an energy of 50 MJ with a 50% partial reflecting mirror.
Ablation using a 50 x 500 μm slit, at 5 Hz, using an energy of 50 MJ with a 50% partial reflecting mirror.
Tissue region was pre-treated with hydrogen peroxide for 24-36 hr to oxidise organics and slices subsequently ultrasonically rinsed and dried. Ledge sampled every 0.25 mm. Every second sample analysed and consecutive sampled analysed for troughs and peaks.
Tissue region was pre-treated with hydrogen peroxide for 24-36 hr to oxidise organics and slices subsequently ultrasonically rinsed and dried. Ledge sampled every 0.25 mm. Every second sample analysed and consecutive sampled analysed for troughs and peaks.
Tissue region was pre-treated with hydrogen peroxide for 24-36 hr to oxidise organics and slices subsequently ultrasonically rinsed and dried. Ledge sampled every 0.25 mm. Every second sample analysed and consecutive sampled analysed for troughs and peaks.
Scanned beneath an ArF excimer laser operating at a wavelength of 193 nm. Elemental analysis was from a 50 x 500 micron slit and scanned at approx. 1 mm per minute and averaged into 10 second blocks (approx. 0.15 mm resolution).
Scanned beneath an ArF excimer laser operating at a wavelength of 193 nm. Elemental analysis was from a 50 x 500 micron slit and scanned at approx. 1 mm per minute and averaged into 10 second blocks (approx. 0.15 mm resolution).
Scanned beneath an ArF excimer laser operating at a wavelength of 193 nm. Elemental analysis was from a 50 x 500 micron slit and scanned at approx. 1 mm per minute and averaged into 10 second blocks (approx. 0.15 mm resolution).
Scanned beneath an ArF excimer laser operating at a wavelength of 193 nm. Elemental analysis was from a 50 x 500 micron slit and scanned at approx. 1 mm per minute and averaged into 10 second blocks (approx. 0.15 mm resolution).
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. LiCa calculated from LiMg and MgCa. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. LiCa calculated from LiMg and MgCa. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Milled at continuous 2 mm increments in 5 mm-wide transects for bimonthly or better resolution. d11B isotopic ratio relative to NIST SRM 951 boric acid standard. Analytical uncertainty reported for JCp-1 from Thompson et al. (2022) and assumes published uncertainty is 1 standard deviation.
Continuous 5-year intervals. Samples cleaned with hydrogen peroxide and subsequently rinsed and dried. Samples d11B relative to NBS SRM 951 boric acid standard and d13C standardised to Vienna Peedee Belemnite using NBS 19.
Continuous 5-year intervals. Samples cleaned with hydrogen peroxide and subsequently rinsed and dried. Samples d11B relative to NBS SRM 951 boric acid standard and d13C standardised to Vienna Peedee Belemnite using NBS 19.
Continuous 5-year intervals. Samples cleaned with hydrogen peroxide and subsequently rinsed and dried. Samples d11B relative to NBS SRM 951 boric acid standard and d13C standardised to Vienna Peedee Belemnite using NBS 19.
Continuous 5-year intervals. Samples cleaned with hydrogen peroxide and subsequently rinsed and dried. Samples d11B relative to NBS SRM 951 boric acid standard and d13C standardised to Vienna Peedee Belemnite using NBS 19.
Continuous 5-year intervals. Samples cleaned with hydrogen peroxide and subsequently rinsed and dried. Samples d11B relative to NBS SRM 951 boric acid standard and d13C standardised to Vienna Peedee Belemnite using NBS 19.
Continuous 5-year intervals. Samples cleaned with hydrogen peroxide and subsequently rinsed and dried. Samples d11B relative to NBS SRM 951 boric acid standard and d13C standardised to Vienna Peedee Belemnite using NBS 19.
Continuous 5-year intervals. Samples cleaned with hydrogen peroxide and subsequently rinsed and dried. Samples d11B relative to NBS SRM 951 boric acid standard and d13C standardised to Vienna Peedee Belemnite using NBS 19.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: BaCa = 0.68%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: MgCa = 0.26%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. SrCa long term analytical reproducibility quoted as better than 0.15%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: UCa = 0.70%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: YCa = 1.90%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: BaCa = 0.68%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: MgCa = 0.26%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. SrCa long term analytical reproducibility quoted as better than 0.15%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: UCa = 0.70%.
Slabs were soaked in 15% hydrogen peroxide for up to 5 days to oxidise organics and subsequently ultrasonically rinsed and oven dried. Milled at 1 mm increments with a 1-2 mm depth using a hand-held drill and 1 mm diamond drill bit. JCp-1 reproducibility: YCa = 1.90%.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standard (Mafia Coral Powder (MCP)).
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Milled at 1 mm intervals near density transects using a micro-mill with a 1 mm bit. Analytical precision for SrCa & isotopes from in-house coral standards (Mafia Coral Powder (MCP) & Luxor respectively). Isotopes relative to Vienna Pee Dee Belemnite.
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Sampling every 1.5 mm using a 1 mm drill bit. d18O relative to Vienna Pee Dee Belemnite and analytical precision determined from standard calcite (KCM). SrCa analytical precision based on coral standard solution.
Sampling every 1.5 mm using a 1 mm drill bit. d18O relative to Vienna Pee Dee Belemnite and analytical precision determined from standard calcite (KCM). SrCa analytical precision based on coral standard solution.
Sampling every 1.5 mm using a 1 mm drill bit. d18O relative to Vienna Pee Dee Belemnite and analytical precision determined from standard calcite (KCM). SrCa analytical precision based on coral standard solution.
Sampling every 1.5 mm using a 1 mm drill bit. d18O relative to Vienna Pee Dee Belemnite and analytical precision determined from standard calcite (KCM). SrCa analytical precision based on coral standard solution.
Sampling every 1.75 mm using a 1 mm drill bit. d18O relative to Vienna Pee Dee Belemnite and analytical precision determined from standard calcite (KCM). SrCa analytical precision based on coral standard solution.
Sampling every 1.75 mm using a 1 mm drill bit. d18O relative to Vienna Pee Dee Belemnite and analytical precision determined from standard calcite (KCM). SrCa analytical precision based on coral standard solution.
Sampling every 1.75 mm using a 1 mm drill bit. d18O relative to Vienna Pee Dee Belemnite and analytical precision determined from standard calcite (KCM). SrCa analytical precision based on coral standard solution.
Sampling every 1.75 mm using a 1 mm drill bit. d18O relative to Vienna Pee Dee Belemnite and analytical precision determined from standard calcite (KCM). SrCa analytical precision based on coral standard solution.
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Pre-treated with sodium hypochlorite for 24 hr to remove organics and subsequently ultrasonically rinsed and oven dried. RGB intensities acquired using Line Scan Software Version 1.6 (Avaatech).
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 1 mm along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 1 mm along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 1 mm along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 1 mm along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 1 mm along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 1 mm along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 1 mm along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 1 mm along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Approx. 1 mm resolution subsampling along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Approx. 1 mm resolution subsampling along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Sampled every 0.33 mm along a trench using a 1 mm drill bit attached to a Dremel rotary tool fitted with a Flex-Shaft attachment.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Approx. 0.5 mm resolution subsampling along pre-drilled trench using a 1 mm drill bit.
Slabs were pre-treated with 15% hydrogen peroxide for 48 hr. Approx. 0.5 mm resolution subsampling along pre-drilled trench using a 1 mm drill bit.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. NdYB normalised relative to Post Archean Australian Shale. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. NdYB normalised relative to Post Archean Australian Shale. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit at 1 mm increments, to collect a minimum of 12 sequential samples per annual band. JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2019a) & Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Slices were pre-treated with 10% hydrogen peroxide for 48 hr to oxidise organics and subsequently ultrasonically rinsed and oven dried. Manually collected using a drill with a 2 mm diameter bit to collect a minimum of 12 sequential samples per annual band (8-12 samples per annual band as per Saha et al. 2018b). JCp-1 & analytical precision reported from Saha et al. (2021). See Saha et al. (2021) supplementary for all analytical precision results. Complete machine details as per Saha et al. (2021) is Thermo X-series II ICP-MS with a CETAC - 500 auto-sampler, electron spray PC3 Peltier cooled cyclonic spray chamber and SC-FAST injection loop. REEs measured.
Ablation used a rectangular 40 x 400 μm slit, a 40 mm per second span speed, 5 Hz repetition rate, 50 MJ of energy, and a 50% partially reflecting mirror. NIST 614 & in-house pressed powder coral standard.
Ablation used a rectangular 40 x 400 μm slit, a 40 mm per second span speed, 5 Hz repetition rate, 50 MJ of energy, and a 50% partially reflecting mirror. NIST 614 & in-house pressed powder coral standard.
Ablation used a rectangular 40 x 400 μm slit, a 40 mm per second span speed, 5 Hz repetition rate, 50 MJ of energy, and a 50% partially reflecting mirror. NIST 614 & in-house pressed powder coral standard.
Ablation used a rectangular 40 x 400 μm slit, a 40 mm per second span speed, 5 Hz repetition rate, 50 MJ of energy, and a 50% partially reflecting mirror. NIST 614 & in-house pressed powder coral standard.
Annual intervals were re-milled and collected from sampling grooves parallel to first sampling locations by Deng et al. (2014). 4-5 g of each sample was collected. Mo isotopic composition is reported relative to NIST SRM 3134 standard.
Annual intervals were re-milled and collected from sampling grooves parallel to first sampling locations by Deng et al. (2014). 4-5 g of each sample was collected. Mo isotopic composition is reported relative to NIST SRM 3134 standard.
Annual intervals were re-milled and collected from sampling grooves parallel to first sampling locations by Deng et al. (2014). 4-5 g of each sample was collected. Mo isotopic composition is reported relative to NIST SRM 3134 standard.
Annual intervals were re-milled and collected from sampling grooves parallel to first sampling locations by Deng et al. (2014). 4-5 g of each sample was collected. Mo isotopic composition is reported relative to NIST SRM 3134 standard.
Annual intervals were re-milled and collected from sampling grooves parallel to first sampling locations by Deng et al. (2014). 4-5 g of each sample was collected. Mo isotopic composition is reported relative to NIST SRM 3134 standard.
Annual intervals were re-milled and collected from sampling grooves parallel to first sampling locations by Deng et al. (2014). 4-5 g of each sample was collected. Mo isotopic composition is reported relative to NIST SRM 3134 standard.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed. BaCa analytical precision 1-3%.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. BaCa analytical precision 1 - 3%.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed. BaCa analytical precision 1-3%.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. BaCa analytical precision 1 - 3%.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
Milled from 2 mm wide sampling grooves in 1 year intervals. d13C & d18O relative to Vienna PDB standard. d11B relative to NIST SRM 951 standard. Analytical precision quoted as better than values listed.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
Pre-set track of 2 mm width, 2.5 mm depth, and 2 mm increment. Approx. 5 samples per year. Background corrected using 14C-free marble and corrected using AMS online d13C. Reported as decay-corrected D14C.
Pre-set track of 2 mm width, 2.5 mm depth, and 2 mm increment. Approx. 5 samples per year. Background corrected using 14C-free marble and corrected using AMS online d13C. Reported as decay-corrected D14C.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
100 μm by and 500 μm wide, 5 Hz laser repetition rate and a scan speed of 100 μm/s. After data averaging, each point is approx. 0.59 mm of coral extension. NIST 614 & NIST 612 glass standards used for Li and in-house Davies reef coral standard used for B, Mg, Ca, Sr & U.
Samples collected at 1-2 mm intervals along the main growth axis using a milling machine with a steel drill bit, for a total of 52 subsamples in 4-5 years.
Samples collected at 1-2 mm intervals along the main growth axis using a milling machine with a steel drill bit, for a total of 52 subsamples in 4-5 years.
Samples collected at 1-2 mm intervals along the main growth axis using a milling machine with a steel drill bit, for a total of 52 subsamples in 4-5 years.
Samples collected at 1-2 mm intervals along the main growth axis using a milling machine with a steel drill bit, for a total of 52 subsamples in 4-5 years.
Samples collected at 1-2 mm intervals along the main growth axis using a milling machine with a steel drill bit, for a total of 52 subsamples in 4-5 years.
Samples collected at 1-2 mm intervals along the main growth axis using a milling machine with a steel drill bit, for a total of 52 subsamples in 4-5 years.