Lab Scale High Pressure Reactor

Introduction Of Lab Scale High Pressure Reactor

TGYF high pressure autoclave reactor is a reactor designed to operate under high pressure and high temperature conditions. Autoclaves are used in many industries such as chemistry, pharmaceuticals, and materials science to perform chemical reactions, material synthesis, material testing, etc. under high pressure and high temperature conditions. It is designed with high-quality stainless steel inner cavity and equipped with temperature and pressure control system.

Model Of Lab Scale High Pressure Reactor:

TGYF-A:

The optional capacity range is 0.05~0.5L, magnetic stirring, and the temperature is set at 350°C.

TGYF-B:

The optional capacity range is 0.05~0.5L, magnetic stirring, and the temperature is set at 350°C.

TGYF-C:

The optional capacity range is 0.05~0.5L, mechanically stirred, and the temperature is set at 350°C.

Structure Of Lab Scale High Pressure Reactor

• Lumen:

The lumen is the main vessel where chemical reactions take place. It is usually made of high-quality stainless steel, which can withstand high pressure and high temperature conditions.

• Jacket:

The jacket is the outer layer of the reactor and surrounds the inner cavity. It is designed to contain heating or cooling fluids that help regulate the temperature inside the reactor.

• Lid:

The lid is the top cover of the reactor and can be sealed to prevent any gas or liquid from escaping during the reaction. The cover usually includes a pressure gauge and safety valve to regulate and monitor the pressure inside the reactor.

• Stirring System:

The stirring system is an optional component used to mix the reactants and increase the reaction rate. It usually consists of a magnetic stir bar that rotates within the inner chamber.

• Heating system:

The heating system is an important part of the lab scale high pressure reactor, which is used to increase the temperature in the reactor. It usually includes a heating jacket, heating element and temperature control system.

• Cooling System:

The cooling system is used to control the temperature of the reactor by circulating a cooling fluid through the jacket.

Applications Of Lab Scale High Pressure Reactor

Material synthesis:

Lab scale high pressure reactor is often used in the synthesis of materials such as nanoparticles and nanowires. High-pressure environments allow controlled synthesis of materials with specific properties and morphologies.

Hydrothermal synthesis:

Lab scale high pressure reactor is also commonly used in hydrothermal synthesis, which involves the reaction of materials in high-pressure and high-temperature water. Hydrothermal synthesis can be used to create a range of materials, including ceramics, semiconductors and polymers.

Catalyst Testing:

Lab scale high pressure reactor is used to test catalysts for various applications such as fuel cells and chemical processing. High-pressure environments allow the study of catalytic activity under specific conditions, such as high temperature and pressure.

Polymerization:

Lab scale high pressure reactor is used in polymerization reactions which involve the formation of polymers from monomers. The high pressure environment allows the production of polymers with specific molecular weights and properties.

Temperature And Speed Settings

Button definition:

• 【Setting】key:

It can set or view the temperature setting value, speed setting value and its internal parameters.

• 【Time】key:

to set the running time. After the timer is over, click the [Heating] button to restart the temperature control operation.

• 【Heating】key:

heating key.

• [Increase/Switch] key:

In the non-setting state, press and hold this key for 3 seconds to switch between the two temperature displays and save them automatically; in the setting state, click this key to increase the set value, long Press this key to continuously increase the set value.

• [Decrease/Auto-tuning] key:

In the non-setting state, click this key for 6 seconds to enter the temperature self-tuning selection state; in the setting state, click this key to decrease the set value, long press this key to Continuously decrements the set value.

• [Shift] key:

In the setting state, click this key to make the set value shift and flash to modify.

• [Stirring] key:

Stirring (speed) switch key.

Temperature:

In the non-setting state, click the [Setting] button to enter the temperature setting state, the temperature window displays the temperature setting value and flickers, and modify it to the desired temperature setting value by shifting, increasing, and decreasing keys;

Speed:

In the non-setting state, click the [Setting] button to enter the speed setting state. The setting method is the same as the temperature; after the speed setting value is set, click the [Setting] button again, and the set value is automatically saved and stored. Return to normal display state.

To set the time, you need to click the [Time] button, and the setting method is the same as the temperature.

Note: Timing is the constant temperature timing after the temperature reaches the set temperature.

After the temperature and speed are set, press the heating button to start or stop heating, press the stirring button to start or stop stirring

Parameter

FAQ

Q: What is the temperature range and pressure range of Lab scale high pressure reactor?

A: The temperature setting of the benchtop stainless steel reactor is usually 350°C, and the pressure setting is usually 22 MPa. However, temperature and pressure ranges may vary by specific model.

Q: What is the capacity of Lab scale high pressure reactor?

A: The capacity of benchtop stainless steel reactors may vary by specific model and manufacturer. Usually, it ranges from 0.05L to 0.5L.

Q: What types of reactions can Lab scale high pressure reactor perform?

A: Benchtop stainless steel reactors can be used for a variety of chemical reactions, including synthesis, decomposition, polymerization, and crystallization. It can also be used in the preparation of materials, such as the preparation of materials such as nanoparticles.