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The GC-102 gas chromatography equipment utilizes its unique modular design to maximize laboratory productivity and profitability. The GC-102 is designed to minimize interaction with the instrument, limiting local operation to basic operations and providing full control of the instrument through the chromatography analysis data system. These gas chromatography instruments offer proven reliability, high sample throughput. It delivers superior analytical performance and uptime with intelligent predictive technology.
The advanced gas chromatography system showcases several impressive features, carefully designed for precision and ease of use.
With seamless PC control, the user interface is user-friendly and easy to navigate and operate.
Temperature regulation is precise, with an accuracy greater than ±0.1°C, minimizing temperature overshoot during rapid heating.
A built-in self-diagnostic system ensures continuous monitoring and protection, including power protection, oven over-temperature protection and auto-ignition for increased safety and reliability.
Accurate display of temperature setting and actual value and FID amplifier sensitivity
Single gas system and precision graduated pneumatic control valves ensure excellent reproducibility and stability.
Model | GC-102 | |
---|---|---|
Temperature Control | Temperature Area | Column oven, sampler, detector |
Temperature Range | 15℃~399℃ above room temperature (increment: 1℃) | |
Temperature Accuracy | Better than ±0.1℃(measured at 200℃) | |
Flame Ionization Detector (FID) | Detection Limit | Dt ≤1×10-10g/s (octane and hexadecane) |
Baseline Drift | ≤2×10-12A/h | |
Linear Range | ≥10 | |
Max. limit Temperature | 400℃ | |
Basic Function | Power Supply | AC220V±10%, 50Hz |
Power | ≤1500W | |
Optional Accessories | N2000 chromatography workstation | |
Shipping Size(W×D×H)(mm) | 970×680×780 | |
N.W./G.W. (kg) | 56/80 |
Chromatography is an experimental technique for separating a mixture of compounds into homogeneous groups. It utilizes the difference in partitioning of the different components between the stationary phase and the mobile phase, allowing the different components to be separated. Gas chromatography is an experimental technique for separating mixtures of compounds in the gas phase.
Compounds can be separated in a number of ways. In gas chromatography, a gas chromatography system consists of a sample inlet, a capillary tube and a detection device.
When a sample is injected into the inlet, a gas stream carries it through the capillary column. The column oven then heats the column, separating the compounds based on their boiling points. In general, lighter and smaller compounds have lower boiling points and therefore migrate through the column faster than heavier or larger compounds. At the exit of the column, there is a detector to identify compounds as they exit the column.
The detector destroys compounds as they pass through and a specific reaction produces a response or peak in the detector. The GC operator can better understand the identity of a compound based on its migration time and the response of the detector.
The GC-102 gas chromatography equipment utilizes its unique modular design to maximize laboratory productivity and profitability. The GC-102 is designed to minimize interaction with the instrument, limiting local operation to basic operations and providing full control of the instrument through the chromatography analysis data system. These gas chromatography instruments offer proven reliability, high sample throughput. It delivers superior analytical performance and uptime with intelligent predictive technology.
The advanced gas chromatography system showcases several impressive features, carefully designed for precision and ease of use.
With seamless PC control, the user interface is user-friendly and easy to navigate and operate.
Temperature regulation is precise, with an accuracy greater than ±0.1°C, minimizing temperature overshoot during rapid heating.
A built-in self-diagnostic system ensures continuous monitoring and protection, including power protection, oven over-temperature protection and auto-ignition for increased safety and reliability.
Accurate display of temperature setting and actual value and FID amplifier sensitivity
Single gas system and precision graduated pneumatic control valves ensure excellent reproducibility and stability.
Model | GC-102 | |
---|---|---|
Temperature Control | Temperature Area | Column oven, sampler, detector |
Temperature Range | 15℃~399℃ above room temperature (increment: 1℃) | |
Temperature Accuracy | Better than ±0.1℃(measured at 200℃) | |
Flame Ionization Detector (FID) | Detection Limit | Dt ≤1×10-10g/s (octane and hexadecane) |
Baseline Drift | ≤2×10-12A/h | |
Linear Range | ≥10 | |
Max. limit Temperature | 400℃ | |
Basic Function | Power Supply | AC220V±10%, 50Hz |
Power | ≤1500W | |
Optional Accessories | N2000 chromatography workstation | |
Shipping Size(W×D×H)(mm) | 970×680×780 | |
N.W./G.W. (kg) | 56/80 |
Chromatography is an experimental technique for separating a mixture of compounds into homogeneous groups. It utilizes the difference in partitioning of the different components between the stationary phase and the mobile phase, allowing the different components to be separated. Gas chromatography is an experimental technique for separating mixtures of compounds in the gas phase.
Compounds can be separated in a number of ways. In gas chromatography, a gas chromatography system consists of a sample inlet, a capillary tube and a detection device.
When a sample is injected into the inlet, a gas stream carries it through the capillary column. The column oven then heats the column, separating the compounds based on their boiling points. In general, lighter and smaller compounds have lower boiling points and therefore migrate through the column faster than heavier or larger compounds. At the exit of the column, there is a detector to identify compounds as they exit the column.
The detector destroys compounds as they pass through and a specific reaction produces a response or peak in the detector. The GC operator can better understand the identity of a compound based on its migration time and the response of the detector.