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Optically Stabilized Light Sources
Optically Stabilized Light Sources
High-brightness, long life LED-based light sources in visible, UV, and NIR wavelengths
Continuous stable output with real-time optical feedback
Electronically triggered
Rugged, high-quality construction
Scientific-grade light sources suitable for field, industrial, and laboratory applications
Individual light sources available at 365 nm (UV), 405 nm (violet), 460 nm (blue), 525 nm (green), 850 nm (NIR), and white (polychromatic, 400 nm to 850 nm). Other wavelengths available – ask us!
Free-space-coupled Ø9.5 mm outlet aperture designed for use with the Wilson Open Platform System (OPS); standalone and fibre-coupled options available
Mean irradiance ranging from 90 mW/cm2 (365 nm) to 31 mW/cm2 (525 nm) at the output aperture (Ø9.5 mm)
Deep UV Light Sources
Deep UV Light Sources
Deep UV LED-based light sources
Continuous stable optical output
Temperature regulated
Electronically triggered
Rugged, high-quality construction
Suitable for field and industrial applications
High brightness, long life LED Emitter
Scientific grade light sources
Individual light sources available at 255 nm, 265 nm, 275 nm, 295 nm, 310 nm, or 340 nm
Mean irradiance ranging from 61 mW/cm^2 (265 nm) to 126 mW/cm^2 (340 nm) at the output aperture (Ø9.5 mm)
Potential Application for the Deep UV Light Source
Potential Application for the Deep UV Light Source
Deep-UV Excitation Yields New Analysis Opportunities in Rugged Settings
Deep-UV Excitation Yields New Analysis Opportunities in Rugged Settings
Fluorescence spectroscopy is a valuable precision measurement technique, traditionally used in a laboratory settings. With the introduction of Wilson Analytical ruggedized spectroscopy products, spectroscopy becomes accessible to a wider set of applications - including field testing, quality assurance, quality control, inline monitoring, and environmental testing.
In the following example we can see how Willson Analytical’s system can be used to detect water contaminants, through the use of our Deep UV 275nm excitation light source and a UV spectrometer.
Figure 1. Polyaromatic Hydrocarbon (PAH) fluorescence spectra obtained in water with 275nm excitation. Run on the Wilson Analytical Open Platform Spectroscopy System
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