Trace Elements Speciation
Advanced Analytical Capabilities
Brooks Applied Labs (BAL) has developed a comprehensive suite of analytical techniques for trace metal speciation tailored to specific sample matrices and target molecules. Due to the unique chemical properties of different trace metals molecules, one analytical method will not work for all species and all sample matrices.
Through in-house research and method development, as well as collaborations with the industry and IEH Laboratories, Brooks Applied Lab’s scientists have generated robust preparatory and analytical methods to support most trace metals speciation requests.
Our lab continuously evolves—new techniques are developed and validated monthly based on emerging ecological, toxicological, and regulatory needs. Trace metals speciation analysis is currently supported for most sample matrices.
Why Trace Elements Speciation Matters
Trace element speciation determines the exact chemical form of a metal, not just its total concentration. This distinction is critical because different species of the same metal can vary widely in toxicity, mobility, and biological impact. Understanding these forms enables better risk assessment, regulatory compliance, and informed product development.
Our Speciation Capabilities
Brooks Applied Labs currently provides proprietary, validated methods for the speciation of the following trace metals:
- Arsenic Speciation Analysis
- Selenium Speciation Analysis
- Chromium Speciation Analysis
- Mercury Speciation Analysis
- Vanadium Speciation Analysis
- Lead Speciation Analysis
- Thallium Speciation Analysis
- Manganese Speciation Analysis
- Iron Speciation Analysis
- Cobalt & Iron Cyanide Complexes Analysis
To learn more about our speciation analysis and how they can benefit your projects, contact us today.