Overcoming Challenges in Elemental Speciation Techniques

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Presentation transcript:

Overcoming Challenges in Elemental Speciation Techniques NEMC 2018 Mark Kelinske Product Specialist ICP-MS, ICP-MS/MS

Agilent’s History in ICP-MS 30 Years of ICP-MS Innovation 1987 2000 2009 1994 First computer-controlled ICP-MS PMS series 4500 7500 Enabling high sensitivity metal analysis Enabling routine robust ICP-MS analysis Enabling control of common interferences First benchtop ICP-MS Cool plasma Enabling ease of use and productivity 9 orders detector ORS cell HMI ISIS-DS MassHunter SW Enabling controlled reaction chemistry 8800 ICP-QQQ 2012 World’s first ICP-QQQ 2014 #1 selling ICP-MS ! 7700 7900 UHMI ODS detector ISIS 3 A new era in ICP-MS performance 2015 2016 7800 Solution ready Method automation Enabling simplified ICP-MS workflows Flexible, high performance MS/MS New 8900 ICP-QQQ Second generation ICP-QQQ Agilent’s History in ICP-MS 30 Years of ICP-MS Innovation Overcoming Challenges in Elemental Speciation Techniques

Overview Plumbing Considerations Why LC Connections Matter Chromatography Examples ICP-MS Settings Overcoming Challenges in Elemental Speciation Techniques

Plumbing for Column Compartment Valve 1 – From Column 2 – To ICP-MS (Splitter) 3 – ISTD Loop 4 – ISTD from PeriPump 5 – ISTD Return to Bottle 6 – ISTD Loop Position 1 – Loop Fill 1-2; 3-4; 5-6 Position 2 – ISTD Inject 1-6; 2-3; 4-5 1 2 3 6 4 5 Overcoming Challenges in Elemental Speciation Techniques

Note 1 Note 2 Plumbing for Passive Seat Wash Note 1 – 0.5mm ID tubing (PEEK Orange) to port 4 on ALS valve for passive needle seat wash Note 2 – 0.12mm ID tubing (PEEK Red) to ICP-MS Note 1 Note 2 Overcoming Challenges in Elemental Speciation Techniques

ALS Valve Plumbing Diagram 1 – From Pump 2 – Needle Loop 3 – Plug 4 – From T-Splitter (0.5mm ID) 5 – Needle Seat 6 – To Column Position 1 – Mainpass 1-2; 3-4; 5-6 Position 2 – Bypass 1-6; 2-3; 4-5 Note: When in Bypass and needle is lifted, mobile phase will backflush needle seat. 1 2 3 6 4 5 Overcoming Challenges in Elemental Speciation Techniques

Final Plumbing Example Overcoming Challenges in Elemental Speciation Techniques

Why Plumbing Matters: Stainless vs. Poly Fittings Overcoming Challenges in Elemental Speciation Techniques

Why Plumbing Matters: Types of Fittings Overcoming Challenges in Elemental Speciation Techniques

Why Plumbing Matters: Types of Fittings Overcoming Challenges in Elemental Speciation Techniques

Why Plumbing Matters: Make Proper Connections Overcoming Challenges in Elemental Speciation Techniques

Why Plumbing Matters: Make Proper Connections Overcoming Challenges in Elemental Speciation Techniques

Why Plumbing Matters: Make Proper Connections Overcoming Challenges in Elemental Speciation Techniques

Why Plumbing Matters: Make Proper Connections Overcoming Challenges in Elemental Speciation Techniques

Why Plumbing Matters: Don’t Forget Dispersion Overcoming Challenges in Elemental Speciation Techniques

Experimental – Arsenic Agilent 7800 – x lens, MicroMist, Ni Cones Agilent 1260 – BioInert, Quat Pump, Well-Plate ALS, TCC 6-port BioInert Valve Column Hamilton PRP X-100 SAX 250mm x 4.6mm, 10um Mobile Phase 6mM Ammonium Phosphate / 6 mM Ammonium Nitrate / 2% MeOH / pH 6.2 Flow Rate 1.0 ml / min (isocratic) Injection Volume 100 µl Gas Mode He Integration Time 1.0 sec Total Run Time ~20 min Overcoming Challenges in Elemental Speciation Techniques

Toxicity and pKa of Arsenic Species Overcoming Challenges in Elemental Speciation Techniques

Experimental – Arsenic 10pg each species Overcoming Challenges in Elemental Speciation Techniques

Experimental – Arsenic 5,000pg each species Overcoming Challenges in Elemental Speciation Techniques

Experimental – Arsenic #2 Agilent 7800 – x lens, MicroMist, Ni Cones Agilent 1260 – BioInert, Quat Pump, BioInert Multi-Sampler, TCC 6-port BioInert Valve Column Hamilton PRP X-100 SAX 150mm x 4.6mm, 10um Mobile Phase 6mM Ammonium Phosphate / 6 mM Ammonium Nitrate / 2% MeOH / pH 6.2 Flow Rate 1.5 ml / min (isocratic) Injection Volume 100 µl Gas Mode He Integration Time 1.0 sec Total Run Time ~7 min Overcoming Challenges in Elemental Speciation Techniques

Experimental – Arsenic 10pg each species Overcoming Challenges in Elemental Speciation Techniques

Experimental – Arsenic 500pg each species Presentation Title 11/22/2018 Confidentiality Label Overcoming Challenges in Elemental Speciation Techniques

Experimental – Arsenic Comparison Presentation Title 11/22/2018 Confidentiality Label Column Hamilton PRP X-100 SAX 150mm x 4.6mm, 10um Mobile Phase 6mM Ammonium Phosphate / 6 mM Ammonium Nitrate / 2% MeOH / pH 6.2 Flow Rate 1.5 ml / min (isocratic) Injection Volume 100 µl Gas Mode He Integration Time 1.0 sec Total Run Time ~7 min Column Hamilton PRP X-100 SAX 250mm x 4.6mm, 10um Mobile Phase 6mM Ammonium Phosphate / 6 mM Ammonium Nitrate / 2% MeOH / pH 6.2 Flow Rate 1.0 ml / min (isocratic) Injection Volume 100 µl Gas Mode He Integration Time 1.0 sec Total Run Time ~20 min Overcoming Challenges in Elemental Speciation Techniques

Experimental – Arsenic Contamination Presentation Title 11/22/2018 Confidentiality Label Watch out for contamination from the labware Amber glass may contain low levels of arsenic This includes sample vials Clear glass usually OK PFA/FEP bottles are best Overcoming Challenges in Elemental Speciation Techniques

Examples: Add PEEK Red Before Column Overcoming Challenges in Elemental Speciation Techniques

Examples: Add PEEK Blue Before Column Overcoming Challenges in Elemental Speciation Techniques

Examples: +0.5% HCl Overcoming Challenges in Elemental Speciation Techniques

Examples: +0.5% Nitric Acid Overcoming Challenges in Elemental Speciation Techniques

Experimental – Selenium Agilent 7800 – x lens, MicroMist, Ni Cones Agilent 1260 – BioInert, Quat Pump, Well-Plate ALS, TCC 6-port BioInert Valve Column Metrosep A Supp10 250mm x 4.0 mm Mobile Phase A – DIW / 2% Acetonitrile B – 200 mM Ammonium Nitrate / 2% ACN / pH 9.5 Flow Rate 1.0 ml / min (gradient) Injection Volume 100 µl Gas Mode H2 Integration Time 0.8 sec Total Run Time ~30 min Overcoming Challenges in Elemental Speciation Techniques

Experimental – Selenium 5pg each species Overcoming Challenges in Elemental Speciation Techniques

Experimental – Selenium 5,000pg each species Overcoming Challenges in Elemental Speciation Techniques

Experimental – Chromium Agilent 7800 – x lens, MicroMist, Ni Cones Agilent 1260 – BioInert, Quat Pump, Well-Plate ALS, TCC 6-port BioInert Valve Column Agilent Bio WAX 50mm x 4.6mm, 5um Mobile Phase 100 mM Ammonium Carbonate / 5 mM EDTA Flow Rate 1.0 ml / min (isocratic) Injection Volume 100 µl Gas Mode He Integration Time 1.0 sec Total Run Time ~3 min Overcoming Challenges in Elemental Speciation Techniques

Experimental – Chromium 3+ @ 5000pg Chromium 6+ @ 50pg Overcoming Challenges in Elemental Speciation Techniques

ICP-MS Instrument Settings Nebulizer Gas Flow Rate Waste Pump Rate Conditioning Detector Integration Time Overcoming Challenges in Elemental Speciation Techniques

Acknowledgments Mark Powell Jenny Nelson Overcoming Challenges in Elemental Speciation Techniques

Questions? Mark Kelinske Mark.Kelinske@agilent.com Overcoming Challenges in Elemental Speciation Techniques