OEM Raman Spectrometer System

• Wavelength choice  785nm & 1064nm 

• Output power: 0-500mW tunable

• Wavelength range: 200-3200cm^-1 / 200-2500cm^-1

• Optical resolution: 6 - 12 cm^-1

• SDK available for system integration

• Ultra-stable on Thermal Drifting 

OEM Raman provides an option for customers to integrate our Raman system into a system, we provide SDK, API for software integration, we can customize the laser and spectrum resolution based on customer request

Customized option available 

  • Working distance 

  • Focus spot size 

  • Optical resolution 

  • Laser source, mode , power, linewidth

Portable Tabletop Raman System - RMT EZ

• Wavelength choice 785nm 

• Output power range 0-500mW

• Wavelength range: 200-3200cm^-1 

• Optical resolution: 7 cm^-1  typical

• System size: 150 x 150 x 360 mm

RMT EZ provides a sample holder in front of the laser output port, custom can put liquid sample inside or Raman analysis, if you want to measure the solid sample, the sample holder can be disassembled so you can place the sample in front of the detection port for Raman analysis

• Rigid Integrated optical design 

• Customized Sample hold available 

• Analysis software available 

• Ultra-stable on Thermal Drifting 

Portable Tabletop Raman System - RMT

• Wavelength choice 532nm, 785nm & 1064nm 

• Output power range 0-500mW

• Wavelength range: 200-3200cm^-1 /200-1800cm^-1

• Optical resolution: 8 - 9 cm^-1 typical

• System size: 373.5 x 260 x 74 mm

RMT785 is a fibre output Raman spectrometer, it provides customers the flexibility to measure the sample in any direction it also works well with the customer’s sample fixture, the standard fiber length is 0.5 meter, 1 meter fibre can be provided upon request

• Rigid Integrated optical design 

• Customized Sample hold available 

• Analysis software available 

• Ultra-stable on Thermal Drifting 

• External fiber optic probe for more flexibility in use

Wde Field Raman Microscope,  

- Raman spectral mapping:

- Photoluminescence micro-spectroscopy

- Multi-channel design

- Using referenced scan image to get localized spectrum

- Standard laser wavelengths offered include 532, 785, and 1064nm, with more available upon request.

- Option for Bright Field or Dark Field microscope

- Standard Free space setup, option for external fiber port.

Details specification for the system please 

Click here

6mm, positioning

 accuracy 10um

6mm, positioning 

accuracy 10um

6mm, positioning 

accuracy 10um

6mm, positioning 

accuracy 10um

The figure shows an example of a drift in the peak position due to the temperature drift of the spectrometer at different temperatures for the same spectral peak. The spectral peaks are not symmetrical because the number of pixels that make up the spectral peaks is small, and the highest pixel of the spectral peak is shifted by one pixel from do to right under the effect of temperature drift.

At this point, we have two ways to evaluate the drift of this peak position.

1. Look at the position of the highest pixel point. Obviously, the peak position is shifted by one pixel, which translates to about 0.15 nm.

2. Fit the peaks before and after the drift and find the peak point of the fit, which is between two pixels. The drift of the fitted peak point is about 0.07nm

So which of these two methods is the right one? We believe that the second one is correct and reflects the true drift of the peak position. The reasons are as follows.

1. The high resolution leads to a low sampling rate of the pixels of the spectral peaks, and directly looking at the shape of the pixels together does not reflect the actual shape of the peaks.

2. The spectral peaks are physically closer to the symmetric distribution, and the drift of the peak position does not cause the peak shape to change.

3. By fitting all the pixels that make up the spectral peaks, the peak shape obtained is closer to the physical reality of the peaks.

Therefore, using the fitted peak shape to determine the peak position and evaluate the drift of the spectrometer is the correct method.

In practice, is it all necessary to do so? It depends on the situation.

If 1. The spectral resolution is low, and the sampling rate of the spectral peaks is high, i.e., it takes more pixel points to compose a peak, and these pixel points themselves are connected into a smoother and more symmetrical peak shape, then you can directly find the position of the highest pixel, or between two pixels, and confirm the peak position by visual evaluation.

2. With High spectral resolution and the need to know precisely the peak value, the above fitting method is needed. The fitting can be done by Spline algorithm, or by Gaussian or Lorentzian fitting, and the reader can choose according to the spectral nature of the sample under test. If you don't know how to choose, use Spline.

High Resolution Spectrometer

High Resolution Spectrometer

Back Illuminated Spectrometer

Hi Sensitivity Cooled Spectrometer 

Handheld Raman System 

Band Range 

200-3200cm^-1/ 200-2500cm^-1

Portable Tabletop Raman System

Portable Tabletop Raman System

Band Range 

200-3200cm^-1/200-1800cm^-1

NIR Spectrometer 

MWIR Spectrometer 

Imaging Spectrometer 

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