MAX2090 | Fiber Optic Spectrometer

Hamamatsu array back illuminated CCD/high UV response/185~1100nm full spectrum

The MAX2090 spectrometer adopts Hamamatsu surface array back illuminated CCD, which has several times higher UV sensitivity and high signal-to-noise ratio than commonly used linear array CCD. At the same time, it adopts imported Richardson grating and is equipped with LVF high-order filter. Based on a 60.0mm focal length optical platform, it provides balanced sensitivity and high resolution in the full spectrum of 200-1100nm, making it a spectrometer suitable for various scientific research applications.

MAX2090 Area Array Back Illumination Spectrometer

The MAX2090 fiber optic spectrometer is mainly aimed at scientific research and industrial users. Its superior sensitivity, thermal stability, high signal-to-noise ratio, and many other advantages have won the trust of customers

1. CCD has a quantization efficiency of 70% in the ultraviolet region and a higher ultraviolet response;

2. By adopting a 60mm focal length CT optical path, the balance between system resolution and sensitivity has been greatly optimized;

3. Using Hamamatsu array back illuminated CCD, 2048 * 64 pixels, with extremely high sensitivity;

4. Adopting imported Richardson grating and equipped with Wenyi photoelectric elimination high-order filter, achieving efficiency balance in the full spectral range of 200-1100nm;

5. To meet the demand for industrial online synchronous detection, real-time synchronous collection can be achieved through USB, serial port, external trigger, etc;

6. We also provide customers with based services NET framework software secondary development toolkit.

Typical application areas:

Transmission, reflection, and absorption spectra are the ratio of the sample spectrum to the reference spectrum, which reduces the signal-to-noise ratio of the original spectrum. Therefore, a spectrometer with a high signal-to-noise ratio is required; At the same time, in order to obtain more information, the spectrometer needs to have a wide spectral range.

Fluorescence spectroscopy measures weak fluorescence intensity, which belongs to weak light signals. In order to detect fluorescence spectra, a high-sensitivity spectrometer is generally required.

Microscopic spectroscopy requires the collection of spectral signals at the micrometer scale, which requires the spectrometer to have the ability to detect weak optical signals.