Simplify Residual Solvent Analysis with MRR Spectroscopy
Book A DemoWhy MRR?
Your Challenges
Analytical chemists performing residual solvent analysis must accurately identify and quantify trace volatile impurities across diverse chemistries, manage time-intensive GC method development, and ensure reliable results in complex sample matrices without slowing down workflows.
Our Solution
MRR simplifies residual solvent analysis into a single, automated measurement. Chemists can directly identify and quantify trace solvents with high selectivity and linearity, eliminating extensive method development, reducing hands-on time, and delivering reliable results without chromatographic separation or complex sample preparation.
Key Applications
| Screening for Harmful Residuals in Early-Stage Products |
| Monitoring Solvent Removal During Process Development |
| Quantifying Trace Solvents in Complex Formulations |
| Differentiating Structurally Similar or Co-Eluting Solvents |
| Investigating Unexpected or Unknown Solvent Contamination |
Featured Application Notes
Recommended Products
Frequently Asked Questions
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How does MRR simplify Residual Solvent Analysis?
MRR simplifies residual solvent analysis by removing the need for chromatographic separation and replacing it with direct, fingerprint-based molecular detection and quantitation.
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What are the advantages of MRR compared to traditional techniques like GC-MS and NMR?
A single experimental run of an MRR workflow can give you definitive structure data and quantitation, saving your team time and effort.
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What types of molecules are suitable for MRR analysis?
MRR works best with small molecules. To read a molecule's molecular "fingerprint", MRR requires molecules to have a dipole moment and to have polarity.

