

- 材料测试与制备
- 材料测试
- 催化剂制备
- English
- Who we are
- Products
- Characterisation Services
- Reactor Design & Manufacturing
- Contact us
- …
- 材料测试与制备
- 材料测试
- 催化剂制备
- English
- Who we are
- Products
- Characterisation Services
- Reactor Design & Manufacturing
- Contact us

- 材料测试与制备
- 材料测试
- 催化剂制备
- English
- Who we are
- Products
- Characterisation Services
- Reactor Design & Manufacturing
- Contact us
- …
- 材料测试与制备
- 材料测试
- 催化剂制备
- English
- Who we are
- Products
- Characterisation Services
- Reactor Design & Manufacturing
- Contact us
Modular Plasma Catalysis R&D Platform

The PCT-LTP-DBD is a modular experimental platform developed for low-temperature plasma science and plasma catalysisresearch, flexibly configurable with DBD discharge, packed-bed discharge, gas-liquid interfacial discharge and other plasma catalytic reaction units. The platform adopts a modular design supporting rapid integration of reactors, power supplies, gas handling and online analysis systems, and can be coupled with in situ/online characterization techniques for simultaneous studies of reaction performance and mechanism. It is widely applicable to CO2 utilization, methane conversion, ammonia synthesis, water treatment, materials modification and related fields, providing a unified and flexible experimental platform for fundamental research, technology development and pilot validation.
- Modular integration: reactor, power supply, gas handling and analysis modules can be flexibly combined per researchneeds.
- Multi-mode discharge: supports DBD, packed-bed and gas-liquid interfacial plasma reaction systems.
Characterization coupling: interfaces with online analysis and in situ characterization for simultaneous performance evaluation and mechanism research.
Specifications
Plasma Type
DBD, packed-bed discharge, gas-liquid interfacial discharge; customizable
Applicable Gases
Inert, air, reactive and mixed gases; customizable
Reactor Configurations
Tubular, flat-plate, packed-bed and liquid-phase reactors; customizable
Applications
CO2 conversion, methane conversion, ammonia synthesis, water treatment, materials modification