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Laboratory micro magnetic stirring high pressure reactor is suitable for stirring flammable, explosive and highly permeable chemical media
It is the best reaction vessel for vulcanization and oxidation in petroleum, chemical, organic synthesis, food and other processes
The stirring tank motor drive adopts magnetic couple connection
The medium and stirring parts work in a sealed state, without contact transmission, avoiding stirring leakage
Model | HPR-B025 | HPR-B05 |
---|---|---|
Volume(L) | 0.25 | 0.5 |
Pressure | 22Mpa | |
Temperature | 350℃ | |
Stirring Speed | 0~1800r/min | |
Heating Power | 0.7KW | 1.5KW |
Heating Mode | Modular Electrical Heating | |
Stirring Method | Magnetic Stirring At The Bottom | |
Material | Stainless Steel 304,316 |
A pressure vessel is any container designed to maintain its contents at a pressure higher than atmospheric.
In the field of chemistry, specialized pressure vessels are used as high pressure reactor vessels.These are robust reactor vessels designed to keep the contents under high pressure while a chemical reaction takes place.
Pressure is one of the most important process variables in chemistry, and carrying out a reaction in a pressure reactor can offer many advantages.
At high pressures, solvents can be heated to higher temperatures before evaporation. This allows reactions to take place at higher temperatures than atmospheric pressure (and therefore faster).
Increasing the pressure directly increases the rate of reaction, especially for gases, by decreasing the volume of reactants and thus increasing the concentration and frequency of collisions.
An increase in pressure shifts the chemical equilibrium toward the side of the reaction with fewer gas moles. Depending on the stoichiometry of the reaction, pressure reactors can play a key role in increasing the yield.
As a result, pressure reactors are critical in a variety of chemical applications, including hydrogenation and other gas-phase reactions, homogeneous and inhomogeneous catalysis, corrosion testing, supercritical studies, and hydrothermal synthesis.
Laboratory micro magnetic stirring high pressure reactor is suitable for stirring flammable, explosive and highly permeable chemical media
It is the best reaction vessel for vulcanization and oxidation in petroleum, chemical, organic synthesis, food and other processes
The stirring tank motor drive adopts magnetic couple connection
The medium and stirring parts work in a sealed state, without contact transmission, avoiding stirring leakage
Model | HPR-B025 | HPR-B05 |
---|---|---|
Volume(L) | 0.25 | 0.5 |
Pressure | 22Mpa | |
Temperature | 350℃ | |
Stirring Speed | 0~1800r/min | |
Heating Power | 0.7KW | 1.5KW |
Heating Mode | Modular Electrical Heating | |
Stirring Method | Magnetic Stirring At The Bottom | |
Material | Stainless Steel 304,316 |
A pressure vessel is any container designed to maintain its contents at a pressure higher than atmospheric.
In the field of chemistry, specialized pressure vessels are used as high pressure reactor vessels.These are robust reactor vessels designed to keep the contents under high pressure while a chemical reaction takes place.
Pressure is one of the most important process variables in chemistry, and carrying out a reaction in a pressure reactor can offer many advantages.
At high pressures, solvents can be heated to higher temperatures before evaporation. This allows reactions to take place at higher temperatures than atmospheric pressure (and therefore faster).
Increasing the pressure directly increases the rate of reaction, especially for gases, by decreasing the volume of reactants and thus increasing the concentration and frequency of collisions.
An increase in pressure shifts the chemical equilibrium toward the side of the reaction with fewer gas moles. Depending on the stoichiometry of the reaction, pressure reactors can play a key role in increasing the yield.
As a result, pressure reactors are critical in a variety of chemical applications, including hydrogenation and other gas-phase reactions, homogeneous and inhomogeneous catalysis, corrosion testing, supercritical studies, and hydrothermal synthesis.