Wasatch Photonics designs and manufactures high throughput fiber-coupled and free space spectrometers and systems, delivering the best price to performance on the market, particularly for applications requiring high speed and sensitivity. The Wasatch Advantage is our high efficiency spectrometer design-an innovative, very low f/# optical bench built around our proprietary Volume Phase Holographic Grating technology. The resultant increase in throughput, sensitivity, and speed dramatically broadens the potential of promising optical spectroscopy techniques like Raman and spectral domain OCT. The Wasatch Difference lies in how we collaborate with our research and OEM customers to unlock and deliver that potential.
Raman: Fiber coupled and free-space spectrometers and systems for more excitation wavelengths than anywhere else: 405, 532, 638, 785, 830, 1064, and 1550 nm. Let our expertise and testing determine the optimal wavelength for your sample.
VIS and NIR: High efficiency spectrometers spanning 400-2500 nm, ideal for low light applications. Our systems enable high data collection rates for kinetics monitoring and high-throughput quality control.
Fluorescence: Spectrometers and systems designed to capture and keep more photons for better S:N at the sample, resulting in incredibly low limits of detection for biological studies, photoluminescence, and NIR studies.
Wasatch Photonics Systems Division facility serving the Spectroscopy and OCT markets is located in Durham, NC, while our proprietary VPH gratings are developed and manufactured in Logan, Utah.
An Interview with AES Mid-Career Award Recipient Jason Dwyer
July 25th 2024Jason Dwyer of the University of Rhode Island has been named the recipient of the American Electrophoresis Society’s Mid-Career Award, which honors exceptional contributions to the field of electrophoresis, microfluidics, and related areas by an individual who is currently in the middle of their career.
Glucose's Impact on Brain Cancer Cells Unveiled Through Raman Imaging
July 25th 2024Researchers have used Raman spectroscopy and chemometric methods to reveal how glucose affects normal and cancerous brain cell metabolism. Their findings highlight specific biomarkers that can distinguish metabolic changes, potentially aiding in cancer research and treatment.