GEN-MKT-18-7897-A
Dec 19, 2019 | Blogs, Pharma | 0 comments
Over the last several years there has been a slow and steady progression within the LC-MS community to move traditional high-flow applications to lower flow rates. In particular, moving into the microflow regime has proven to be a simple adjustment in methodology that can result in a lot of gain for only a little pain. Microflow chromatography can provide an instant boost in sensitivity because of the increased ionization efficiency at lower flow rates. Additionally, microflow chromatography can lower solvent consumption and reagent costs and reduce downtime spent on routine instrument cleaning.
In the recent webinar Microflow Chromatography: The Key to More Sensitive Met ID, we discuss the benefits of microflow chromatography for metabolite ID applications. We compare microflow versus high flow for the identification of metabolites from several well-characterized drugs. The results are clear. Microflow provides:
As a follow-up to the webinar, we wanted to take the opportunity to answer some questions we received about using microflow for metabolite ID. After watching the presentation and reading our answers, we hope you will be convinced to consider microflow chromatography for your metabolite ID applications, too.
Trifluoroacetic acid (TFA) is emerging as one of the most concerning ultrashort-chain PFAS in Europe’s food supply – particularly in cereals, a staple consumed daily by millions. A report from PAN Europe reveals a widespread and largely unmonitored contamination trend that raises serious questions about food safety, regulatory blind spots, and future monitoring strategies.
PFAS analysis is complex, but expert guidance doesn’t have to be. In this episode of our ‘Ask the PFAS expert series’, we’re joined by Michael Scherer, Application Lead for Food and Environmental, to answer the most pressing questions in PFAS analysis. From why LC-MS/MS systems are the gold standard for analyzing diverse PFAS compounds, to which EU methods deliver reliable results for drinking water, and to practical steps to prevent contamination, Michael shares actionable insights to help laboratories achieve accuracy, consistency, and confidence in their workflows.
During an LC-MS/MS experiment, traditional fragmentation techniques like collision-induced dissociation (CID) have long been the gold standard. Electron-activated dissociation (EAD) is emerging as a transformative tool that enhances structural elucidation, particularly for complex or labile metabolites.
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