ALS specializes in isotope testing by different forms of ICP-MS, such as mass spectrometry with inductively coupled plasma as the ion source, conducted at our custom-built isotope laboratory in Luleå, Sweden.. With more than 30 years of experience working with ICP and an instrumental park consisting of 15 ICP-SFMS and 2 MC-ICP-MS, ALS has the experience and advanced instrumentation to deliver the right solutions and expertise for your isotope testing needs.
In most cases, measurement uncertainty requirements determine which technique is most appropriate for a specific project. By ICP-SFMS, the precision in isotope ratio measurements is better than 0.05% relative standard deviation under optimum conditions. Higher-precision analyses using MC-ICP-MS is enabled through simultaneous measurement of the isotopes by individual detectors. With this method, Isotope ratio precision down to 0.001% (=10 ppm) relative standard deviation can be achieved.
Turnaround time for isotope analysis is typically 10–15 workdays with express options available for turnaround in as fast as as one workday upon sample arrival to the laboratory.
Staff at ALS conducts research within isotope testing. Explore case studies and research relating to isotope ratio testing.
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ALS laboratory in Sweden offers analysis of 20+ isotopic systems by two complementary ICP-techniques.
Isotope testing capabilities
Please contact us to request a quote or if you have any questions that we can help you with.
Contact usOur experts conduct research related to analysis of isotope ratios, often in close cooperation with external institutions such as the Department of Applied Geology at Luleå University of Technology.
By conducting our own research, we have positioned ALS at the forefront of isotope analysis and we are committed to maintaining this position into the future.
| Title |
| Determination of plutonium concentrations and isotope ratios in environmental samples with a double-focusing sector field ICP-MS |
| Multielement determination and lead isotope ratio measurement in alcoholic beverages by HR-ICP-MS |
| Sources of uncertainty in isotope ratio measurements by ICP-MS |
| Simplified method for the Re-Os dating of molybdenite using acid digestion and isotope dilution ICP-MS |
| Separation of Fe from whole blood matrix for precise isotope ratio measurements by MC-ICP-MS: a comparison of different approaches |
| Performance of high resolution MC-ICP-MC for Fe isotope ratio measurements in sedimentary geological materials |
| Intercomparison of boron isotope and concentration measurements. Part II: Evaluation of results |
| Separation of plutonium from soil and sediment prior to determination by ICP-MS |
| The (r)evolution in isotope ratio measurements by ICP-MS |
| Isotopic fractionation during diffusion of transition metal ion in solution |
| Isotopic variations of Zn in biological materials |
| Sources of mass bias and isotope ratio variation in multi-collector ICP-MS: optimization of instrumental parameters based on experimental observations |
| Performance of diffusive gradients in thin films for measurement of the isotopic composition of soluble Zn |
| Molybdenum isotope ratio measurements on geological samples by MC-ICP-MS |
| Measurement of iron and zinc isotopes in human whole blood: Preliminary application to the study of HFE genotypes |
| Fractionation of Fe isotopes as a result of redox processes in a basin |
| Tracing Os pollution sources using isotope signatures |
| Chromatographic purification for the determination of dissolved silicon isotopic compositions in natural waters by high-resolution MC-ICP-MS |
| Revised exponential model for mass bias correction using an internal standard for isotope abundance ratio measurements by MC-ICP-MS |
| Iron isotope fractionation in river colloidal matter |
| Ion-specific isotopic fractionation of molybdenum during diffusion in aqueous solutions |
| Authentication of Kalix (N.E. Sweden) vendace caviar using ICP-based analytical techniques: Evaluation of different approaches |
| Evaluation of simultaneous analyte leaching/vapour phase introduction for direct osmium isotope ratio measurements in solid samples by double-focusing sector field ICP-MS |
| An inter-laboratory comparison of Si isotope reference materials |
| Existence of long-lived isomeric states in naturally-occurring neutron-deficient Th isotopes |
| Silicon isotopic composition of boreal forest vegetation in Northern Sweden |
| Temporal isotopic variations of dissolved silicon in a pristine boreal river |
| Serum/plasma methylmercury determination by isotope dilution gas chromatography – inductively coupled plasma mass spectrometry |
| Elemental and isotopic characterization of cane and beet sugars |
| Isotopic analysis of the metabolically relevant transition metals Cu, Fe and Zn in human blood from vegetarians and omnivores using multi-collector ICP-mass spectrometry |
| Isotope abundance ratio measurements by inductively coupled plasma-sector field mass spectrometry |