FTIR Spectrometer Fourier Transform Infrared Spectrometer with 55000:1 Signal-to-Noise Ratio, 0.5cm-1 Resolution and Non-Orthogonal Michelson Interferometer

The FTIR-100 Fourier Transform Infrared Spectrometer is an advanced instrument developed by our company, integrating the latest mechanical, electronic, and AI technologies. Innovative engineering gives the instrument advanced light source energy transmission efficiency, interferometer stability, and receiver sensitivity, meeting the demands of teaching, industrial, and research applications.

The instrument operates on the principle of interferometer frequency modulation. Light emitted by the source is converted into interference light by the Michelson interferometer and then directed onto the sample. The receiver captures the interference light carrying sample information, and the computer software derives the sample spectrum through Fourier transformation.

1. The interferometer uses a DSP-controlled, electromagnetically driven non-orthogonal Michelson interferometer with continuous dynamic adjustment, automatically optimizing system energy without manual adjustment.
2. Dynamic collimation technology: a magnetic suspension interferometer in which both the moving mirror and the fixed mirror are plane mirrors, with continuous dynamic collimation at 130,000 times per second.
3. SuperTech digital electronic system: fully digital with digital signal output, 24-bit, 500 KHz A/D conversion, and a high-speed USB interface for real-time acquisition of spectral data, ensuring data authenticity and reliability.
4. High-energy infrared single-point light source with electronic voltage stabilization and a built-in uniquely designed reflector, greatly improving light source energy utilization.
5. Excellent optical system design: the optical reflector adopts an overall SPDT cutting process to ensure high reflection efficiency and optical system consistency.
6. Built-in industrial-grade temperature and humidity display screen with digital readout and a humidity alarm device. The instrument is fully sealed to keep the entire cavity dry, greatly extending the service life of each component.
7. Solid-state temperature-controlled diode laser.
8. Reusable 304 stainless steel box desiccant, replaceable without opening the cover.
9. Core components such as the beam splitter, detector, and window are made of KBr material with a special anti-fogging coating; moisture-proof materials such as KRS-5 and ZnSe are also available.
10. Powerful expansion capability: connectable to transmission accessories, attenuated total reflection (ATR) accessories, diffuse reflection accessories, plane reflection accessories, external reflection accessories, infrared microscopes, and more.
11. Intelligent human-computer interaction design with operation guidance, an intuitive and concise interface, and easy learning.
12. Rich spectral library, powerful self-built library function, and high-quality spectral retrieval.
13. Real-time display of data acquisition, with continuous display of the acquisition process and a spectral preview mode.
14. The operating software includes baseline correction, data conversion, multi-component quantification, curve peak fitting, H2O/CO2 automatic compensation, absorbance/transmittance conversion, KK conversion, peak marking, four arithmetic operations, Y-axis normalization, QC comparison, basic analysis, and other functions. It supports more than a dozen formats including CSV, SPA, DPT, and TXT, and allows arbitrary switching between wavenumber (cm⁻¹) and wavelength (µm).

1. Jewelry identification
2. Crystal Q value determination
3. Textile fiber identification
4. Architectural glass parameter determination
5. Fatty acid methyl ester content determination
6. Asphalt traceability and SBS content determination
7. Measurement of carbon and oxygen content in silicon crystals
8. Testing of food, medicine, and their packaging materials
9. Determination of mineral insulating oil and lubricating oil structural cluster composition
10. Identification and determination of typical unconventional additives in motor gasoline
11. Identification of polymer materials such as plastics, rubber, nylon, and resin

Qualitative analysis is commonly used for the overall identification of substances. For samples that can be anticipated in advance, identification can be confirmed by comparing the sample infrared spectrum with the standard infrared spectrum. For samples that cannot be anticipated, identification can be performed by searching the infrared spectrum library. Our company can provide approximately 220,000 Sadtler spectra.

1. Identification of textile fibers
2. Pharmaceutical GMP certification testing
3. Testing of food and drug packaging materials
4. Application scheme for testing brake shoe materials
5. Screening of organic tin in electronic and electrical products
6. Trace evidence analysis and inspection of paint evidence
7. Testing of high molecular polymer materials such as plastics, rubber, adhesives, asphalt, and resins

Quantitative analysis is based on Lambert-Beer quantification. A relationship curve between content and infrared characteristic peak absorbance or peak area is established, and then the unknown content sample is tested.

1. Benzene content in gasoline
2. Determination of hemispherical emissivity of building glass
3. Determination of SBS content in modified asphalt
4. Determination of free silica content in dust
5. Determination of fatty acid methyl ester (FAME) content
6. Determination of ethylene content and isotacticity in polypropylene
7. Identification and determination of typical unconventional additives in motor gasoline
8. Determination of vinyl acetate content in ethylene-vinyl acetate copolymer (E-VAC)

1. Determination of nitrile rubber content
2. Determination of interstitial oxygen content in silicon crystals
3. Determination of substitutional carbon atom content in silicon
4. Determination of total recoverable petroleum hydrocarbons in solid waste
5. Determination of water quality, petroleum, and animal and vegetable oils
6. Rapid determination of benzene content in gasoline by mid-infrared spectroscopy absorption method
7. Determination of carbon structure and structural cluster composition of mineral insulating oil and lubricating oil
8. Determination of hydroxyl content in quartz
9. Determination of methylal content in motor gasoline
10. Application in adhesive curing rate testing
11. Determination of alcohol ester hydroxyl value and saponification value content in cold rolling oil
12. Determination of T501 antioxidant content in transformer oil and turbine oil