Fiber-optic spectrometers are a type of precision instrument that uses optical fibers as the optical signal transmission medium, combines spectroscopic technology and photoelectric detection technology, and realizes the analysis of parameters such as wavelength and intensity of optical signals. Their core advantage lies in breaking the "fixed optical path" limitation of traditional benchtop spectrometers, and achieving "long-distance, in-situ, and multi-channel" spectral detection through the flexible transmission capability of optical fibers.
Understanding a spectrometer's components and structure is essential when selecting one. Key parts include the light source, entrance slit, wavelength selector (grating or prism), and detector. Their configuration directly affects resolution, sensitivity, and application suitability. A high-quality detector improves weak signal measurement, while different wavelength selectors determine the measurable spectral range. Knowing each component's role helps you choose the right spectrometer for your needs.

Industrial-grade high-cost-performance miniature fiber optic spectrometer
Applications: Industrial color measurement, LED sorting, and online quality control.

Balance "practical performance" and "cost-effectiveness"
Applications: Routine laboratory analysis, educational demonstrations, and basic material identification.

High-performance micro fiber optic spectrometer
Applications: High-precision laser characterization, plasma monitoring, and emission spectroscopy.

Industrial-grade miniature fiber optic spectrometer
Applications: Remote water quality monitoring, smart agriculture, and distributed environmental sensing.

Industrial-grade refrigerated micro fiber optic spectrometer
Applications: Low-light fluorescence detection, Raman spectroscopy, and trace chemical analysis.

Deeply Refrigerated Miniature Fiber Optic Spectrometer
Applications: Advanced material science research, quantum dot analysis, and weak signal NIR detection.

Industrial-grade micro-spectrometer
Applications: Portable field analysis, on-site anti-counterfeit inspection, and rapid gem identification.

The SensUVIS3 is an industrial-grade, high-resolution fiber optic spectrometer designed for stability and cost-effectiveness.
Built around a Hamamatsu CMOS detector, it offers high sensitivity across UV and Visible (VIS) bands, making it an ideal turnkey solution for complex industrial integration and scientific analysis.
Raman spectroscopy systems are a class of analytical systems that, based on the Raman scattering effect, enable "fingerprint-level" identification of substance components, structures, crystal forms, and more by detecting the characteristic spectra generated by molecular vibration/rotational energy level transitions in substances. Their core value lies in "non-contact, non-destructive, and rapid qualitative and quantitative analysis".

Focus on professional testing in multiple fields and fill the gap in on-site high-precision testing

Standardized Raman detection accessories compatible with 532nm lasers
A complete spectroscopy system is an integrated and customized spectroscopic analysis solution. By systematically matching and optimizing light sources, sampling modules, spectrometer main units, data processing systems, and auxiliary equipment (such as temperature control, pressure control, and automatic sampling devices), it forms a closed-loop detection system covering "optical signal excitation - acquisition - analysis - output".
Online spectrometers are a type of real-time spectroscopic analysis equipment specifically designed for scenarios such as industrial production and environmental monitoring. Through the in-depth integration of spectral detection modules, on-site sampling systems, and automated control units, they achieve "in-situ, continuous, and unattended" component analysis and quality monitoring of target substances.