Customer requirements:

A teacher from the University of Adelaide has requested the design of a device that can perform catalytic evaluation in environments with ultra-high temperatures, strong light, and toxic gases. This device needs to simulate high-intensity solar radiation to ensure accurate gas ratio in the experiment and can perform exhaust gas sampling analysis. In addition, the safety of equipment is also extremely important, especially when dealing with toxic and harmful gases, which requires precise control of experimental conditions such as concentration, humidity, and temperature.

Our designed solution:

To meet the needs of teachers, we have designed a catalytic evaluation device controlled by multiple sets of gas distribution instruments. This device includes key components such as gas preheater, xenon lamp light source, and precision metering pump, which can accurately control various parameters required for catalytic experiments.

• Reaction chamber: made of stainless steel material, with a maximum operating temperature of 1000 ℃ and a pressure resistance of 0.4MPa, ensuring stable operation in high temperature and high pressure environments.

• Light source: 20 solar xenon lamps, simulating natural lighting.

• Temperature control: Equipped with a precision temperature control system to ensure temperature fluctuations are within ± 0.5 ℃.

• Safety design: equipped with hazardous gas alarm, real-time monitoring and alarm to ensure laboratory safety.

Customer requirements:

A research project by a teacher from Zhejiang Agriculture and Forestry University involves the diversity of catalytic reactions, therefore a device that can conduct catalytic experiments in different gas concentrations, temperatures, humidity, and other environments is needed. Especially, the equipment needs to have strong pressure resistance to adapt to harsh experimental conditions.

Our designed solution:

We forteacherProvided is a catalytic evaluation device equipped with an automatic gas distributor, which can stably control parameters such as gas concentration ratio, humidity, and temperature.

• Reaction chamber: Made of stainless steel refined material, with a maximum operating temperature of 1000 ℃ and a pressure resistance of 0-10MPa, it can meet the requirements of high-pressure experiments.

• Gas liquid separator: Made of 316L stainless steel to ensure separation efficiency and safety.

• Temperature control accuracy: Using intelligent temperature control instruments, the temperature control accuracy reaches ± 1 ℃.

Customer requirements:

A teacher from Shenzhen University needs a catalytic evaluation device that can conduct catalytic experiments under different solubility, humidity, and temperature conditions, and accurately ratio gas components. The device also needs to have precise temperature control and pressure monitoring capabilities to ensure the accuracy of experimental data.

Our designed solution:

We have designed a high-precision catalytic evaluation device that can operate stably in multiple gas concentration, humidity, and temperature environments.

• Reaction chamber: Made of stainless steel refined material, with a maximum operating temperature of 600 ℃ and a pressure resistance of 0.6MPa.

• Control system: equipped with high-precision automatic gas distribution instrument to ensure precise control of gas concentration ratio.

Customer requirements:

Someone from Harbin Engineering UniversityteacherWe need a device that can conduct catalytic experiments in a multi-component gas environment. The device should be able to accurately control multiple experimental conditions such as gas composition, temperature, and humidity, and operate stably in high temperature and high pressure environments.

Our designed solution:

We forteacherA catalytic evaluation device equipped with multiple sets of gas distribution instruments, gas-liquid separators, steam generators, and other components is provided, which can meet the needs of complex experimental environments.

• Reactor: Made of stainless steel refined material, with a maximum operating temperature of 600 ℃ and a pressure resistance of 0.6MPa, ensuring stable operation of the equipment under high pressure and high temperature.

• Gas liquid separator: Made of 316L stainless steel, it can efficiently separate gas and liquid.

• Temperature control: Equipped with intelligent temperature control instruments to ensure that the reaction temperature is controlled within a range of ± 2 ℃.

Customer requirements:

Nanchang University'steacherWe need a device capable of conducting nitrogen oxide oxidation removal experiments. The equipment is required to have precise control over gas concentration, humidity, and temperature, and be able to operate stably at high temperatures around 900 ℃, while also being able to monitor the composition of exhaust gas.

Our designed solution:

We have designed a catalytic evaluation device specifically for nitrogen oxide oxidation removal, with high-precision gas ratio and temperature control capabilities.

• Reactor: Made of stainless steel refined material, with a maximum operating temperature of 900 ℃ and a pressure resistance of 0.6MPa, capable of withstanding high temperature and high pressure environments.

• Gas liquid separator: Made of 316L stainless steel to ensure the gas-liquid separation effect during the experimental process.

• Temperature control: Equipped with intelligent temperature control instruments, the temperature control accuracy is ± 1 ℃.

Customer requirements:

A teacher from Xiamen Urban Environment Institute needs a device that can conduct catalytic experiments in high temperature and high pressure environments. The reactor needs to have high pressure resistance, and the gas distribution system is required to accurately control the proportion of different gases. Due to the involvement of different gas components, the laboratory attaches great importance to the safety and stability of equipment operation.

Our designed solution:

In response to this demand, we have provided a well-designed catalytic evaluation device. The reactor is resistant to high pressure and refined with stainless steel, capable of withstanding a maximum working pressure of 6Mpa. In order to ensure the accuracy of experimental data, the gas distribution system adopts automated precision control technology to ensure the accurate ratio of different gas components. At the same time, the equipment also considers the safety requirements of the laboratory and adopts multiple safety protection designs.

• Reaction chamber: made of stainless steel material, with a maximum operating temperature of 900 ℃ and a pressure resistance of 6MPa, ensuring stable operation in high temperature and high pressure environments.

• Gas liquid separator: Made of 316L stainless steel to ensure the gas-liquid separation effect during the experimental process.

• Temperature control: Equipped with a precision temperature control system to ensure temperature fluctuations are within ± 1 ℃.