990 Micro GC System
990 Micro GC System
Agilent 990 Micro GC systems provide the answers you need in the compact footprint you want. They combine innovative features with quality and speed that are critical to your gas analysis. Quick, easy startup means you get results in minutes, even if you change measurement locations frequently.
Various configuration options offer up to four channels of separation and detection. This versatile GC can be used in the lab, on-line, or in the field, An added benefit is that they use only 10% of the power and carrier gas compared to a conventional lab GC.
Various configuration options offer up to four channels of separation and detection. This versatile GC can be used in the lab, on-line, or in the field, An added benefit is that they use only 10% of the power and carrier gas compared to a conventional lab GC.
Product Details
Features
- Fast GC analysis of gas samples
- Up to 4 channels of separation and detection
- Micro-machined thermal conductivity detector
- Compact GC has a small footprint to save bench space in the lab or fit in locations outside the lab
- Helium, hydrogen, nitrogen, and argon carrier gas options
- Wide range of micro GC column phases
- Flexibility for lab, out-of-lab, process (in-line / at-line), and field operation
- Exchange channels between lab version and mobile version
- Inert sample path to address active compounds such as H2S, which can be measured at low ppm levels
- Wide range of accessories, sample handling, reporting, and result exporting tools
- On-board data handling for out-of-lab or process configurations
- Uses only 10% of the power and carrier gas compared to a conventional lab GC
- Backflush option can be used to shorten run times and protect the column by preventing exposure to unwanted compounds
How It Works
Applications
Featured References
- Publications
-
- A comparative study of odorants for gas escape detection of natural gas and hydrogen, Julien Mouli-Castillo et.al., International Journal of Hydrogen Energy, 46(27), 14881-14893 (2021) Learn More
- Transition metal-catalysed molecular n-doping of organic semiconductors, Guo, H., Yang, CY., Zhang, X. et al., Nature,599, 67-73 (2021) Learn More
- Estimating the energy requirement for hydrogen production in proton exchange membrane electrolysis cells using rapid operando hydrogen crossover analysis, Jacob A. Wrubel et al., International Journal of Hydrogen Energy (2022) Learn More
- Modular Plasma Microreactor for Intensified Hydrogen Peroxide Production, Fabio Cameli et al., ACS Sustainable Chem. Eng., 10(5), 1829–1838 (2022) Learn More
- Towards electrochemical hydrogen storage in liquid organic hydrogen carriers via proton-coupled electron transfers, Hamid Ghorbani Shiraz et al., Journal of Energy Chemistry, 73, 292-300 (2022) Learn More
- Deactivation Model Study of High Temperature H2S Wet-Desulfurization by Using ZnO, Hatunoglu, A. et al., Energies, 14, 8019 (2021) Learn More
- Carbonate Ion Crossover in Zero-Gap, KOH Anolyte CO2 Electrolysis, Peter Mardle et al., J. Phys. Chem. C, 125, 46, 25446–25454 (2021) Learn More
- Long-term performance of highly selective carbon hollow fiber membranes for biogas upgrading in the presence of H2S and water vapor, Adele Brunetti et al., Chemical Engineering Journal, 448, 137615 (2022) Learn More
- Salting-out effect promoting highly efficient ambient ammonia synthesis, Wang, M., Liu, S., Ji, H. et al., Nat Commun, 12, 3198 (2021) Learn More
- Designing Adsorptive Gating via Linker Side-Chain Functionalization in a Honeycomb-MOF, Jan Berger et al., J. Phys. Chem. C, (2022) Learn More
