The X-Series of FTIR spectrometers provide a complete solution for infrared molecular spectroscopy.
The FT/IR-4X FTIR spectrometer with 45° Michelson interferometer (including permanently aligned corner-cube mirrors, diode laser, and AccuTrac™ DSP technology). A broad range beam-splitter has excellent performance in the mid-IR with DLaTGS detector and non-hygroscopic KRS-5 windows. For higher sensitivity, an MCT detector is a good addition for accessories with low light throughput, such as long path-length gas cells. The standard Ge/KBr beam-splitter can be exchanged with one of several different options to extend the wavenumber range from 15,000 cm-1 in the NIR to either 220 or 50 cm-1 in the Far-IR.
The FT/IR-6X FTIR spectrometer includes a more advanced optical system with a 28° Michelson interferometer (also with corner-cube mirrors, diode laser, and AccuTrac™ DSP technology), for high-resolution measurement an optional HeNe laser replaces the diode laser. The FT/IR-6X is designed for more challenging FTIR measurements such as custom sampling accessories with external detector, trace gas analysis, or emission characterization, which require higher throughput, and often require several beam-splitters and/or detectors.
The FT/IR-8X FTIR spectrometer is more advanced and highly configurable, including a HeNe laser and gold-coated optics, operation is similar to the FT/IR-6X but it can also be configured for analyses that require extremely high sensitivity and resolution (down to 0.07 cm-1) or microsecond/nanosecond step-scan measurement.
The X-Series of FTIR spectrometers takes advantage of many useful software applications in the intuitive Spectra Manager™ Suite with integrated search software solution, KnowItAll® Informatics, and database.
What Is an FTIR Spectrometer?
A Fourier Transform Infrared (FTIR) spectrometer is an analytical instrument used to quickly identify and characterize materials by measuring how they absorb infrared (IR) light. In simple terms, it shines infrared light through a sample and records which wavelengths are absorbed. Because different chemical bonds absorb IR light in unique ways, the resulting IR spectrum acts like a molecular fingerprint that reveals information about the chemical composition of the sample.
Common Applications Made Simple
FTIR spectrometers are widely used in industry, research, and quality control because they can identify what a material is made of and how much of each component is present. Typical uses include:
- Material identification in chemicals, polymers, and pharmaceuticals
- Quality control and verification of raw materials
- Environmental and forensic analysis
- Monitoring chemical changes during reactions
- Confirming molecular structure and functional groups
Each application leverages the fact that every unique substance produces a distinct IR absorption pattern.
Key Components:
- IR Source
- Interferometer
- Beam Splitter
- Sample Compartment
- Detector
- Computer/Software for Fourier Transform and analysis