Learn how to use FTIR spectroscopy to perform gas analysis on a variety of samples when you review our resources and instrument solutions. Whether you conduct fire science research or analyze emissions or need to verify the purity of gases for semiconductor manufacturing, see how FTIR spectroscopy provides the insight you need to advance your research or keep your business competitive.
Click to expand the resources below and learn more about industrial gas analysis.
FTIR spectroscopy offers several advantages for monitoring gases produced in industrial production, including combustion emissions and gases from production processes. The advantages are the ability to measure multiple gases simultaneously, rapidly, and continuously. This webinar explains practical considerations for use of FTIR for online monitoring as well as common errors and pitfalls that must be avoided for accurate results.
- Overview of FTIR for gas analysis
- Comparison of FTIR with other techniques
- Sample handling considerations
- Automated continuous operation
FTIR spectroscopy is a robust analytical method that can monitor multiple compounds in exhaust gases online with low detection limits and rapid response. This webinar reviews the challenges industrial chemists and engineers experience in assessing gaseous products of combustion found in:
- Engines and catalytic converter design: Ability to measure 5 samples/second when reducing NOx emissions in the Selective Catalytic Reduction (SCR) cycle using ammonia or urea (NH3)
- Powerplants and cement factories: Need to analyze HCl and SO2 emissions to meet stringent regulatory standards
- Materials fire-safety testing: Need to rapidly identify toxic breakdown products (such as HCl, HF, HBr, or CH2O) for safety considerations
Online FTIR instrumentation provides a flexible, practical analytical technique as manufacturing facilities implement advanced diagnostics and environmental monitoring of their industrial gas streams. From continuous emission monitoring (CEM) to semiconductor gas purity monitoring at parts-per-billion contaminant levels, FTIR offers researchers an invaluable window into the chemical composition of their gas streams.
This webinar introduces listeners to the fundamental strengths, weaknesses, pros, and cons of industrial FTIR analysis, with example applications and comparisons to competing techniques.
FTIR spectroscopy may be useful for engineers and scientists involved in renewable energy research, such as anaerobic digestion of landfill or agricultural products to evolve methane for generation of electricity. FTIR can be used to monitor major components (CH4, CO, CO2), contaminants (siloxanes, acids such as HCl), and combustion products (NO, NO2, N2O). This webinar provides an introduction to FTIR for biogas analysis, including sampling considerations and factors in quantitative analysis.
Scientists in the field of fire safety or fire protection engineering analyze the combustion gases evolved when a material burns under different conditions. Fourier Transform Infrared (FTIR) spectroscopy provides fire safety engineers a useful analytic tool for online analysis of as many as 25 gas species of interest, including highly toxic acids such as HF, HCl, or HCN. Depending on the system configuration, detection limits of low parts-per-million (ppm) may be sampled to monitor evolved gases continuously.
The Air Bag method analyzes the effluent emitted during the air bag inflation. Detection limits assume a collection time of 2 minutes with a room-temperature DTGS detector.
Aviator’s Breathing Oxygen
The Aviator’s Breathing Oxygen (ABO) method is designed to detect impurities in ABO gas according to the US Air Force military standard 1564A. This method is used with the 10-meter gas cell. Detection limits assume a collection time of 2 minutes with a room-temperature DTGS detector.
Compressed Breathing Air
The Compressed Breathing Air (CBA) method analyzes CBA for impurities. This method is used with the 10-meter gas cell. Detection limits assume a collection time of 2 minutes with a room-temperature DTGS detector.
Raw Exhaust method is designed for spark-ignition engine combustion analysis where gasoline is the fuel. The raw exhaust method covers concentration ranges found in the exhaust gas without dilution. The combustion gas sample is taken either before or after the catalytic converter. This method is configured with the Thermo Scientific™ 2-meter gas cell and a liquid-nitrogen cooled MCT-A detector. Detection limits are based on a 3-second sample time.
Diesel: Diesel exhaust differs from spark-ignition engine exhaust due to excess of air, leading to difficult-to-meet NOx reduction targets. FTIR is an excellent technique to study Selective Catalytic Reduction (SCR) compounds, including NO, NO2, N2O, and NH3.
The Fire Science method is configured to analyze toxic gases in the combustion of building materials. The method can be used with cone calorimeters, smoke boxes, or ambient sampling of combustion experiments. A corrosive-duty stainless-steel gas cell, such as the 2- or 10-meter gas cell, is recommended for this analysis. The 2-meter cell is recommended in all applications where the sample concentration is greater than 2 ppm; the 10-meter cell is recommended when analyzing samples below 2 ppm. Detection limits are based on a 3-second sample time with a liquid-nitrogen cooled MCT-A detector.
FTIR is an excellent technique for analyzing gases generated by new renewable energy developments, such as pyrolysis of wood chips or anaerobic digestion of garbage or manure. Synfuels and biogases produce environmental emissions, methane, along with other potentially harmful gases, for power generation. They also cause harmful effects on the combustion chambers or compressors. FTIR spectroscopy offers powerful capabilities to analyze synfuel and biogas components, enabling researchers to optimize their gas generation and collection techniques.
Gas applications that require high accuracy and stable calibrations take advantage of FTIR strengths. Used by specialty gas manufacturers, semiconductor purity testing, and identification of contaminants in O2 or breathing air.
FTIR spectroscopy solutions for gas analysis
We offer a full line of robust gas analyzers to meet your testing requirements—from flexible, general-purpose laboratory systems to rugged systems designed for heavy use in industrial environments. Turnkey calibrations for standard gas applications provide accurate measurements of key environmental gases with customized solutions available for unique applications.
Use this rugged FTIR spectrometer as the standard platform for dedicated applications such as environmental monitoring of combustion gases. The system can be operated manually for discrete tests or integrated into a digital control system (DCS) for automated operation.
Use this customizable FTIR spectrometer for sampling flexibility in applications which require adaptable sampling parameters or unusual sampling configurations. Mix-and-match optical components to focus and record the IR beam directly at your sample.
Use this powerful FTIR spectrometer for ultimate flexibility to meet any of your laboratory FTIR research needs. This complete spectroscopy workstation gives you sampling options beyond gas analysis, from R&D to failure analysis. Extend your capabilities using the built-in ATR and flexible sampling modules (including IR-microscope, Raman, or TGA interface).
Thermo Scientific Antaris FTIR Gas Conditioning and Analysis System
We offer a variety of gas sampling options to meet the demands of different applications. Use this complete rack-mounted FTIR spectrometer that offers portability and an integrated conditioning manifold system to deliver a turnkey solution for a wide range of industrial environments.
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Need to refresh your knowledge?
Down load this helpful brochure “Introduction to Gas Phase FTIR Spectroscopy”. Learn about the basic principles behind the:
- advantages of FTIR analysis of gases
- gas sample analysis process
- practical considerations for gas sampling