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IRIS Single Reflection Diamond ATR FTIR Spectrometer
The IRIS Single Reflection Diamond ATR FTIR Spectrometer accessory is a high-performance sampling solution designed for fast, accurate, and convenient infrared analysis. It enables direct measurement of powders, solids, liquids, gels, and other sample types without complex sample preparation, making it ideal for research, quality control, and material identification applications.
Featuring a precision-engineered diamond ATR crystal and high-energy throughput optical design, the IRIS accessory delivers high-quality spectra within seconds. It is compatible with most FTIR instruments and provides excellent performance for polymer analysis, pharmaceutical testing, chemical research, and routine laboratory applications.
Product Specifications
| Product Name | IRIS Single Reflection Diamond ATR FTIR Spectrometer |
|---|---|
| Form Factor | Benchtop |
| Application | Research, Polymer |
| Wavelength Range | 190 - 1100 nm |
| Optical System | Single Beam |
| Beam Type | Single Beam |
| Spectral Bandwidth | 2 nm |
| Sampling Accessories | Diamond ATR, KBr Pellet |
| Mobility | Portable |
| Packaging | Wooden Box |
Key Features
- High-performance single reflection diamond ATR accessory for FTIR analysis
- Suitable for powders, solids, liquids, gels, and complex samples
- Provides high-quality spectra with minimal sample preparation
- Fast data collection with most samples analyzed within one minute
- Compatible with most FTIR instruments for versatile laboratory use
- Optional Ge ATR crystal support for high refractive index samples
Applications
The IRIS Single Reflection Diamond ATR FTIR Spectrometer is widely used in polymer industries, pharmaceutical laboratories, chemical research centers, quality control laboratories, universities, and material testing facilities for sample identification, contamination analysis, polymer characterization, and routine FTIR analysis.
Working Principle
The Diamond ATR technique works by directing infrared radiation through a high-refractive-index diamond crystal in contact with the sample. The infrared beam undergoes internal reflection within the crystal, creating an evanescent wave that interacts with the sample surface. The absorbed infrared energy is measured to generate a unique molecular fingerprint spectrum for chemical identification and material analysis.
