HPR-20 DLS

HPR-20 DLS

For ultra-high resolution & sensitivity analysis of hydrogen isotopes and light gases

The Hiden HPR-20 DLS gas analysis system is configured for continuous analysis of gases and vapors at pressures near atmosphere in standard form, alternative inlet systems being offered for applications requiring direct sampling from higher pressures to 30 bar. The mass spectrometer includes an ultra-high-resolution mode specifically designed for analysis at low masses, for hydrogen isotopes and light gases.

🛑 Overview

The Hiden HPR-20 DLS gas analysis system is configured for continuous analysis of gases and vapors at pressures near atmosphere in standard form, alternative inlet systems being offered for applications requiring direct sampling from higher pressures to 30 bar. The mass spectrometer includes an ultra-high resolution mode specifically designed for analysis at low masses, for hydrogen isotopes and light gases.

 The Hiden QIC quartz-lined sampling interface operating at up to 200oC provides fast response times of less than 300 milliseconds for most common gases and vapors, including water vapor.

The HPR-20 DLS includes Hiden’s DLS-20 triple filter quadrupole mass spectrometer with 20 mm pole diameter.

Mass range: The DLS-20 includes a unique, user switchable mode allowing the DLS-20 quadrupole mass spectrometer to operate in both the zone I and the zone H stability regions offering ultra-high resolution in the mass range to 20 amu in the stability zone H and very high resolution performance up to 200 amu in the stability zone I.

🛑 Features

• DMM-dynamic multi-mode scanning- uniquely applied for the electron attachment ionization technique for electronegative gas studies

• Extended mass range options to 1000 amu

• Pulse ion counting electron multiplier detector with 7 decades continuous dynamic range

• QIC inlet providing <300 ms response time to changes in gas concentrations

• Fast scan speeds, with up to 650 measurements per second for transient analysis

🛑 Applications

• Hydrogen isotope studies

• Nuclear fusion research