This gas chromatograph boasts a compact design, effectively conserving space, and is tailor-made for individual analyses. Ideal for routine analysis, experimentation, and research purposes, its user-friendly LCD panel simplifies even the most intricate analytical tasks.

JM1001CN is an organic element analyzer based on the Pregl-Dumas method.
The measurement sample is burned and the two elements, carbon, and nitrogen, contained in the gas components obtained are measured simultaneously.
Measurement samples can be analyzed from solids to liquids, supporting a wide range of sample analyses.
The carrier gas can be switched, and argon gas can be used in addition to helium gas.

This diffusion hydrogen analyzer employs gas chromatography to measure hydrogen diffusion in metals. Samples are sealed, degassed, and then analyzed with precision through gas chromatography. This instrument ensures high accuracy without human error, enabling precise diffusion hydrogen (H) D measurement.

This instrument is based on the thermal desorption method of gas chromatography and is used to measure hydrogen that may cause delayed fracture in steel materials. The system allows for continuous batch measurement of hydrogen and validates its behavior with temperature variations. Additionally, it displays data such as temperature and quantity of hydrogen released in measurement result lists and charts, thus verifying the behavior of hydrogen.

JPA301 is a device that generates oxygen plasma in a large chamber made of Pyrex glass and uses the oxygen plasma to incinerate samples at low temperatures.
It can be used in a variety of fields such as pretreatment for inorganic analysis, surface treatment, and surface modification treatment.

The RCAT devices are expertly designed to assess catalyst performance under a broad spectrum of controllable environmental conditions, including variations in gas composition, flow rate, temperature, pressure, and humidity. This flexibility guarantees thorough testing capabilities for diverse experiments. With sophisticated gas flow control via automatic valves for complex reactions, the system enhances the precision and reliability of experimental results. Additionally, it emphasizes efficient management of experimental data, allowing for easy export to external systems or internal storage for accessible and comprehensive analysis.

This equipment is designed for accurately assessing carbon dioxide recovery methods and functions across various controllable environmental setups. It comprises an absorption tower for CO2 capture and a regeneration tower for separating CO2 from the solution, guaranteeing a thorough evaluation of the method's effectiveness. Critical variables like flow rate, temperature, pressure, and humidity are finely adjustable, providing a flexible testing environment customized to distinct research requirements.