Agilent FTIR systems can be adapted and customized to your specific experiments, enabling you to collect more sample information than you ever thought possible. Agilent has a complete suite of FTIR solutions to meet all your biospectroscopy needs. Our spectrometers, microscopes, and chemical imaging systems deliver: Thermally-controlled accessories for use in aqueous environments, simplifying the analysis of tissues and cells under native conditions. Straightforward kinetics software to study changes in biosystems such as protein folding, enzyme dynamics, and drug uptake. Highest signal-to-noise (S/N) performance — up to four times better than any available FTIR — providing the highest sensitivity and productivity and the ability to analyze samples that may not be possible with other FTIRs. Intelligent electronics for accessory and component recognition, providing seamless changeovers and automatic method optimization. Micrometer to meter measurements using Agilent FTIR large sample microscope objective, to analyze a wide range of samples. Multiple measurement modes including transmission, reflection, ATR and grazing angle. ATR micro- and macro-imaging, which extend traditional imaging measurements to new boundaries, reducing sample preparation and improving spatial resolution.
This document presents Agilent's suite of FTIR solutions designed for biomedical and biological applications. It highlights the versatility of the technology, covering uses from new drug product development and protein structure studies to the investigation of cellular components and diseased tissues. The brochure emphasizes the ability to perform multiple measurement modes, including transmission, reflection, ATR, and grazing angle imaging.
| Signal-to-Noise Performance | up to four times better than any available FTIR |
|---|---|
| Measurement Range | Micrometer to meter |
It offers the fastest kinetics speeds to investigate changes occurring within a fraction of a second as well as slow kinetics over hours or days.
The systems provide a signal-to-noise performance up to four times better than any available FTIR.
The study monitored changes by heating the sample from 40 to 92 °C.