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Lasany Gas Chromatography (GC) System
The Lasany Gas Chromatography (GC) System is a high-performance analytical instrument designed for the separation, identification, and quantification of volatile and semi-volatile compounds. It is widely used in pharmaceutical, chemical, environmental, food, petrochemical, and research laboratories for quality control and analytical testing.
Equipped with advanced temperature programming, flexible sample injection options, and compatibility with industry-standard detectors such as FID and TCD, the Lasany GC system delivers accurate, reliable, and repeatable results. The system supports multiple carrier gases and can also be integrated with GC-MS for advanced compound identification and research applications.
Product Specifications
| Product Name | Gas Chromatography System |
|---|---|
| Brand | Lasany |
| Detector Type | FID (Flame Ionization Detector), TCD (Thermal Conductivity Detector) |
| Number of Injectors | 1 Injector |
| Number of Detectors | 1 Detector |
| Oven Temperature Range | Room Temperature to 350°C |
| Carrier Gas | Nitrogen, Helium, Hydrogen |
| Application | Laboratory Analysis & Quality Control |
Key Features
- High-performance gas chromatography for accurate separation and analysis
- Advanced column oven with precise programmable temperature control
- Supports manual injection, autosampler, and headspace sampling
- Compatible with FID and TCD detectors for versatile analysis
- Supports Helium, Nitrogen, and Hydrogen carrier gases
- Optional GC-MS integration for advanced compound identification
Applications
The Lasany Gas Chromatography System is extensively used in pharmaceutical quality control laboratories, chemical industries, environmental monitoring, food and beverage testing, petrochemical laboratories, forensic science, academic institutions, and research laboratories for qualitative and quantitative analysis of volatile compounds.
Working Principle
Gas Chromatography separates volatile compounds by transporting a vaporized sample through a capillary column using an inert carrier gas such as Helium, Nitrogen, or Hydrogen. Each compound interacts differently with the stationary phase inside the column and reaches the detector at a unique retention time. The detector records these signals, enabling precise identification and quantification of individual components within the sample.
