Trace Gas Analyzer

Trace Gas Analyzer

Trace Gas Analyzer

Introduction

Trace gas analyzer IR-GAS-600 simultaneous high‑stability NDIR detection of CO, CO₂, and CH₄. And it is ideal for demanding applications such as syngas composition analysis and gasification atmospheres. Accurate hydrogen (H₂) measurement via thermal conductivity technology, with full compensation for background gas interferences, ensuring reliable readings regardless of CO, CO₂, or CH₄ levels. Optional paramagnetic sensor for O₂ analysis, featuring a non‑depleting design for long sensor life and low maintenance.

Features

☑ ppb ultra high sensitivity Spectrum single line scanning, precise lock test wavelength

☑ Automatic compensation of atmospheric temperature, pressure and humidity

A trace gas analyzer is a specialized instrument used to detect and measure the concentration of trace gases in a gas sample. Trace gases refer to gases that exist in very low concentrations, typically at levels of parts per billion (ppb) or parts per trillion (ppt) within a gas mixture. Applications IR-GAS-600 is engineered for Trace gas measurement, syngas production, biomass/coal gasification, steel‑making, coke ovens, and similar industrial processes The choice of an IR-GAS-600 depends on factors such as the target trace gas, required detection limits, measurement range, sample handling requirements, and application-specific needs. It is important to select an analyzer that provides the necessary sensitivity, accuracy, and reliability for the specific trace gas analysis requirements.

 

Parameter Specification
Measurement Principle • Infrared dual‑beam NDIR (CO, CO₂, CH₄, CnHm)
• Thermal Conductivity Detector (H₂)
• Electrochemical (galvanic fuel‑cell) Detector (O₂ 0–25%)
Gas & Range • CO, CO₂, CH₄: 0–5% (LR) / 0–100% (HR)
• CnHm: 0–10%
• H₂: 0–20% (LR) / 0–100% (HR)
• O₂: 0–25%
Resolution • NDIR gases (CO, CO₂, CH₄, CnHm): 0.001% (LR) / 0.01% (HR)
• H₂ (TCD): 0.01% (LR & HR)
• O₂ (ECD): 0.01% (LR & HR)
Accuracy (Full Scale) • NDIR gases (CO, CO₂, CH₄, CnHm): ≤ ±2%
• H₂, O₂: ≤ ±3%
Warm‑up Time < 2 min (start‑up); < 3 min (full spec)
Measuring Conditions Pa = 1013 hPa; Ta = 25 °C; Flow = 0.7 L/min
Response Time (t₉₀) Approx. 12 s @ 0.7 L/min
Analog Output 1 × 4–20 mA per measuring channel
User Interface Front‑panel keyboard for configuration & calibration

A trace gas analyzer is a specialized instrument used to detect and measure the concentration of trace gases in a gas sample. Trace gases refer to gases that exist in very low concentrations, typically at levels of parts per billion (ppb) or parts per trillion (ppt) within a gas mixture.

Applications

IR-GAS-600 is engineered for Trace gas measurement, syngas production, biomass/coal gasification, steel‑making, coke ovens, and similar industrial processes

The choice of an IR-GAS-600 depends on factors such as the target trace gas, required detection limits, measurement range, sample handling requirements, and application-specific needs. It is important to select an analyzer that provides the necessary sensitivity, accuracy, and reliability for the specific trace gas analysis requirements.

Measuring carbon dioxide (CO2) is important for understanding the role it plays in the environment and its effect on climate change. CO2 is a major component of Earth’s atmosphere, and it traps heat like a blanket, causing global temperatures to rise. Too m uch CO2 can lead to drastic changes in our weather patterns and ecosystems, so monitoring its levels is essential for predicting future climate conditions. Additionally, measuring CO2 can help us better understand our impact on the environment and make informed decisions about how to reduce emissions and slow down down down down down global warming. By analyzing CO2 data over time, we can develop strategies to mitigate the effects of climate change and ensure a sustainable future.

Before industrialization, the global average annual atmospheric carbon dioxide concentration was 278ppm (1ppm is one part per million). In 2012, the global annual average atmospheric carbon dioxide concentration was 393.1ppm. By April 2014 , the monthly average carbon dioxide concentration in the northern hemisphere atmosphere exceeded 400ppm for the first time. . 2. Global climate warming, the continuous aggravation of the atmospheric greenhouse effect leads to global climate warming, resulting in a series of global climate problems that cannot be predicted by today’s science. According to the International Climate Change Economics Report, if human beings maintain the current way of life, by 2100, there will be a 50% chance that the global average temperature will rise by 4°C.

Ask For A Quick Quote !

We will contact you within 1 working day, please pay attention to the email with the suffix [email protected] .

Get An Quote

We’ll send you the catalog as soon as you submit your email