Glass-jacketed reactor

The glass-jacketed reaction vessel consists of a double-layered glass structure, where the interlayer is circulated with a medium to control the temperature of the inner chamber. It facilitates chemical reactions through stirring and heating or cooling, and is used for small-scale synthesis, material mixing, and process condition testing in laboratory settings.
Selection
When selecting, consider the corrosiveness of the material to match the glass type, determine the capacity based on the reaction scale, choose a jacket temperature control system according to the temperature range, confirm the sealing method based on pressure requirements, and determine the structural configuration by combining the stirring speed and feeding method.

Terms

Standards

Instruments

Water-jacketed structure with accurate and reliable temperature control, Temperature Uniformity +/- 0.2 ℃, can still maintain thermostatic for a long time after power failure, using mirror stainless steel studio and semi-circular design for easy cleaning.

$ 725.00

The water-jacketed structure has accurate and reliable temperature control, Temperature Uniformity +/- 0.2 ℃, and can still maintain thermostatic for a long time after power failure. The microcomputer PID controller has sound and light alarm function to ensure the safety and stability of the experiment.

$ 948.00

The water-jacketed structure has accurate and reliable temperature control, Temperature Uniformity +/- 0.2 ℃, and can still maintain thermostatic for a long time after power failure. The microcomputer PID controller has an automatic alarm function, and the studio is made of mirror stainless steel.

$ 462.00

Water-jacketed heating is used to ensure uniform and stable temperature, and it can still remain thermostatic for a long time after power failure; the circulating wind speed is automatically adjusted to avoid sample volatilization, and the Temperature Fluctuation is only +/- 0.3 ° C, with multiple safety alarm functions.

$ 638.00

Water-jacketed heating ensures Temperature uniformity, and can still maintain thermostatic for a long time after power failure; with independent temperature limit alarm system, Temperature Fluctuation +/- 0.5 ℃, supports 1~ 9999 minutes timing, to ensure the safe and stable operation of the experiment.

$ 869.00

Water-jacketed heating ensures Temperature uniformity, and can continue to maintain thermostatic after power failure; with independent temperature limit alarm system, Temperature Fluctuation +/- 0.5 ℃, providing a stable foster environment.

$ 649.00

Water-jacketed Heating mode to ensure Temperature uniformity, continuous thermostatic after power failure. With independent temperature limit alarm system, Temperature Fluctuation +/- 0.5 ℃, support 1~ 9999 minutes timing, to ensure the safe and stable operation of the experiment.

$ 1111.00

Water-jacketed structure ensures uniform and stable temperature, and can still maintain thermostatic for a long time after power failure; High Accuracy Platinum Resistance Sensor, Temperature Fluctuation is only +/- 0.1 ℃, Uniformity +/- 0.2 ℃; with automatic water level alarm and over-temperature protection function.

$ 543.00

Water-jacketed Heating mode ensures Temperature uniformity +/- 0.5 ℃, and can still maintain thermostatic for a long time after power failure. With independent temperature limit alarm system, low water level automatically stops heating to ensure safe and stable operation of the experiment.

$ 572.00

Using Water-Jacketed heating technology, it can still maintain thermostatic for a long time after power failure; the circulating wind speed is automatically adjusted to avoid sample volatilization; the temperature control accuracy is +/- 0.3 ° C, the uniformity is +/- 0.5 ° C; it has multiple safety alarm functions.

$ 720.00

Adopt diagonal air duct structure to ensure Temperature Uniformity +/- 1 ℃, Water-Jacketed heating can still maintain thermostatic after power failure, equipped with PID control and independent temperature limit alarm system to ensure the safe and stable operation of the experiment.

$ 1114.00

Water-jacketed heating method, Temperature Uniformity +/- 1 ℃, can still maintain thermostatic for a long time after power failure. The diagonal air duct structure in the box ensures uniform temperature, the mirror stainless steel liner is easy to clean, and the shelf spacing is adjustable for easy use.

$ 574.00

Adopt diagonal air duct structure to ensure Temperature Uniformity +/- 1 ℃, Water-jacketed heating can still maintain thermostatic after power failure. Mirror stainless steel liner is easy to clean, with sound and light alarm and independent temperature limiting system to ensure experimental safety.

$ 843.00

Water-jacketed heating system is used to ensure uniform temperature stability, temperature control accuracy of +/- 0.3 ℃, CO2 concentration control accuracy of 0.1% and double filtrate device, effectively maintain the clean foster environment and prevent pollution.

$ 2468.00

Water-Jacketed heating is used to ensure uniform temperature, and it can still be thermostatic for a long time after power failure; the circulating wind speed is automatically adjusted to avoid sample volatilization; it has multiple Safety protection functions such as temperature, water level and door opening alarm.

$ 772.00

Articles

Automatic coating machines are used for the uniform application of conductive silver paste onto ITO glass.
This article explores the technique of uniformly coating conductive silver paste on ITO glass using an automatic coating machine. By controlling parameters such as coating speed and pressure, the automatic coating machine replaces traditional manual methods, thereby enhancing the consistency and repeatability of the coating process.
DSC analyzer measures the glass transition of degradable films.
This article explains how to use a differential scanning calorimeter to measure the glass transition temperature of a degradable film. It first clarifies that the glass transition is the process by which a material changes from a glassy state to a highly elastic state, which appears as a baseline shift on the curve.
The film coater applies a conductive film onto transparent substrate test pieces.
This article introduces a method for uniformly coating conductive films on transparent substrates such as glass or plastic films using a film applicator.
The coating machine applies the OLED light-emitting layer onto ITO glass.
This article introduces the technique of using a coating machine to apply OLED luminescent layers onto ITO glass. The coating principle involves matching solution rheology with substrate surface energy, allowing control over film thickness by adjusting parameters such as viscosity and speed.
The polymer film is formed by blade coating on a glass substrate using a film applicator.
This article introduces the technique of using a film applicator to doctor-blade polymer films onto glass substrates.
Differential scanning calorimetry for determining the glass transition temperature of epoxy resin
Differential scanning calorimetry analyzes the thermal properties of materials by measuring the heat flow difference between the sample and a reference material.
Method for determining the dynamic viscosity of varnish using a falling ball viscometer
This article introduces a method for measuring the dynamic viscosity of varnish using a falling-ball viscometer. It is based on Stokes' law, which calculates viscosity by measuring the time required for a standard small ball to fall a fixed distance in a vertical glass tube filled with varnish.
Differential Scanning Calorimetry for Determining the Melting Point and Glass Transition Temperature of Hot Melt Adhesives
This article introduces the method of determining the melting point and glass transition temperature of hot-melt adhesives using a differential scanning calorimeter. Differential scanning calorimetry analyzes the thermal transition characteristics of materials by measuring the energy difference between the sample and a reference material.
Application of Gardner Colorimeter in the Determination of Oil and Fat Color
The Lovibond tintometer determines the color of oils and fats by visually comparing them with standard glass color standards, with results expressed as numerical codes. During operation, clarified oil samples are poured into the colorimetric cell and compared with color chips under a stable light source.