Multi-assembly testing
Around CH₄, CO₂, N₂O The three core greenhouse gases establish corresponding detection pathways.
GREENHOUSE GAS · GAS CHROMATOGRAPHY
Accurate monitoring of greenhouse gases
Accurate monitoring of greenhouse gases
and Emission Analysis Platform
Soil-oriented — Plant — Water — Scientific scenes such as biological processes, Based on a dedicated gas chromatography system CH₄, CO₂ and N₂O Multi-assembly sub-test path. Switch through auto-valves, Specialized chromatography column, FID / ECD Two-detection channels and methane conversion units, Complete research links from sample sampling to quantitative analysis.
CH₄CO₂N₂OFID + ECDS-GC
PLATFORM OVERVIEW
Upgrade from a “measurement of a gas” to a complete greenhouse gas research link
The thematic positioning is not a single gas chromatography test project, but is structured around greenhouse gas composition, sampling design, chromatography, quantitative calibration and scientific interpretation of organizational detection capabilities.
Special airways to valves.
Quantification and diversion analysis of samples using automatic six-barrel, ten-barrel, quantitative ring and dedicated column tracks.
Double detector coordination
FID and ECD Carry out response tests for different gases, CO₂ Get in after methane conversion FID Path.
Data and quality control
Qualitative, quantitative and batch data collation in conjunction with standard gas, workstation and chromatographic peak information.
DETECTION CAPABILITY
Core greenhouse gas detection capacity
The following test paths are based on the specific GHG profiles and typical spectrographs provided, with specific methodological parameters and ranges to be identified based on sample concentrations and research needs.
CH₄
METHANEMethane
Using FID Hydrogen Flammation Ionization Detection Channels, applicable to methane component analysis in GHG studies.
Test Pathchromatography separation → FID
CO₂
CARBON DIOXIDECarbon dioxide
Through the methane transformation furnace, CO₂ Convert to enter after FID Channels, Achieved and CH₄ Auxiliary Analysis Path.
Test Pathchromatography separation → MTN → FID
N₂O
NITROUS OXIDENitrogen oxide
Adopt ECD Electronic capture detector, Achieved N₂O Specialized response and chromatography analysis.
Test Pathchromatography separation ECD
SYSTEM ARCHITECTURE
S-GC Greenhouse Gas Analysis System
GC –2010Pro and GC – 2014CA configurations with automatic pressure control, double detector, methane conversion unit, automatic valve box and dedicated column group.
01AutoInline Path1.0 mL Quantification Ring + AutoTen Valves / Six Valves
02Pressure and air route controlAUX‑APC Auto-pressure control and air purification configuration for three channels
03Specialized separation column groupPorapak Q and Hayesep & D
04Double Test ChannelFID Hydrogen Flame Ionization Monitor + ECD Electronic Capture Monitor
05Methane Conversion UnitMTN Methane transformation furnaces for CO₂ It's FID Analysis Path
06Data workstationsLabSolutions Workstations for Collection, Scores and Results Management
GC - 2010Pro Greenhouse Gas Analysis System
GC‑2010Pro Host + ECD‑2010 + FID‑2010 + MTN + Autovalve Box + Specialized columns.
GC - 2014CA Greenhouse Gas Analysis System
GC‑2014CA Host + ECD‑2014CA + FID‑2014CA + MTN + Autovalve Box + Specialized columns.
TYPICAL CHROMATOGRAM
Typical chromatography response
It's in the source FID Channels CH₄ / CO₂ and ECD Channels N₂O Typical chromatography, You can see the target gas's stand-alone response peak.
FIDCH₄ / CO₂
ECDN₂O
RESEARCH APPLICATIONS
Science applications
Science-based testing of GHG production, releases and changes in different environments and biological processes is possible, and actual sampling programmes need to be designed in conjunction with study scales and concentration ranges.
Greenhouse gas emissions from soils
Agricultural soils, Fertilizer treatment, In the case of culture experiments, CH₄ / CO₂ / N₂O Change studies.
Wetlands and ecosystems
Study on gas releases and carbon nitrogen cycles associated with wetlands, sediments, plant roots and ecological processes.
Water treatment and biological processes
Sewage treatment, anaerobic/poerobic processes, fermentation systems and reactor gas phase separation studies.
Material and emission reduction studies
Change in concentrations and evaluation of effects of gases in adsorption, catalytic, transformation and GHG emission reduction materials.
PROJECT WORKFLOW
From research design to results delivery
Pre-confirmation of sampling methods, concentration ranges, sample numbers and time points is more important for scientific projects than simply “sampling tests”.
01
Requirement confirmation
Subject, target gas, number of samples, time point and range of expected concentrations.
02
Sample Design
Identification of methods of gas collection and preservation to avoid leakage, adsorption or cross-pollution effects.
03
Standards and methods
Determination of calibration and analysis options in conjunction with standard gas and target concentration ranges.
04
GC Test
Automatic valve input, chromatography separation, FID / ED channel detection and peak points.
05
Data delivery
Data required to organize target group results, chromatography, batch information and scientific analysis.
Advice before sending samplesSource of sample · Target gas = Number of samples = Approximate concentration range = Sample container = Time-series design = Need for standard curves/original map
GREENHOUSE GAS ANALYSIS
Needs for the scientific testing of greenhouse gases
If you're working on it, CH₄, CO₂, N₂O Related emissions, Fluxes, Emission reduction or institutional studies, Research systems and sample information can be provided first, We'll match the detection and data program.
Suggested remarks when added: Web topic + unit + research direction
Recommendation preparation: Sample type Quantity Target/indicator Quantity Quantity Quantity Quantity Quantity Target / Indicator Qualitative cycle