The unique verTera extension upgrades the famous VERTEX 80v to the first and only combined FT-IR/continuous wave THz spectrometer.
verTera makes use of high precision semiconductor based photomixers, converting near infrared laser light into THz radiation. Source and detector are integrated into the VERTEX 80v beam path and the class 1 NIR laser radiation is connected via fiber and vacuum tight feedthrough.
Vacuum operation eliminates unwanted atmospheric interferences and provides utmost stable conditions, resulting in significantly higher THz performance.
The VERTEX NEO R represents the new generation of vacuum FT-IR spectrometers, designed to set new standards in advanced research applications. With an emphasis on flexibility, precision, and innovation, it delivers the ultimate support for cutting-edge scientific exploration.
Building on 50 years of success in the FT-IR academic and research market, we proudly present our next-generation FT-IR vacuum research spectrometer VERTEX NEO R. Designed with cutting-edge technology and well-proven unique features, this new instrument is not just an upgrade – it’s a revolution! More powerful electronics, more flexible optics bench, all new vacuum ATR technology, VERTEX NEO R is designed to push the boundaries of scientific discovery and continue our legacy of superior VERTEX performance.
The VERTEX 80 and the VERTEX 80v vacuum FT-IR spectrometers are based on the actively aligned UltraScan™ interferometer, which provides PEAK spectral resolution. The precise linear air bearing scanner and PEAK quality optics guarantees the ultimate sensitivity and stability. The VERTEX 80v is an evacuated optics bench that can eliminate atmospheric moisture absorptions for ultimate sensitivity and stability; enabling demanding experiments such as high resolution, ultra fast rapidscan, step-scan, or UV spectral range measurements.
The VERTEX 80/80v optics design allows PEAK flexibility and at the same time PEAK instrument performance. The unique Bruker Optics DigiTect™ technology prevents external signal disturbance, guarantees PEAK signal-to-noise ratio and allows easy and reproducible detector exchange by the instrument user. The two optional external detector ports accommodate the liquid He dewars of bolometer and/or hot electron detectors. In combination with the external water cooled high power Hg-arc source, the recently rediscovered terahertz spectral range is accessible even with a room temperature operated DTGS-detector.
