Precision High-Temperature Thermostatic Bath

The precision high-temperature constant temperature bath maintains a stable high-temperature environment within an enclosed space through electric heating and a circulation system. It is used for material heat resistance testing, constant temperature control of chemical reactions, and instrument calibration, with a working temperature of up to 300℃ or higher.
Selection
When selecting, consider the temperature range covering experimental needs, temperature control accuracy matching testing standards, tank capacity accommodating sample dimensions, material corrosion resistance suitable for working media, and safety protection features ensuring operational stability.

Terms

Standards

Instruments

Adopt Stainless Steel Liner and High Sensitive Platinum Resistance Sensor, Temperature range RT-100 ℃, Tank volume 10L, to ensure accurate temperature control, easy operation, suitable for precision thermostatic experiments.

$ 252.00

Using Stainless Steel liner and High Sensitive Platinum Resistance Sensor, Temperature range RT-100 ℃, temperature control is accurate, suitable for precision thermostatic experimental needs.

$ 225.00

Stainless steel liner, beaker hole can be arbitrarily changed size; High Accuracy Microcomputer temperature control, Temperature range RT + 5~ 100 ℃, thermostatic Fluctuation +/- 0.5 ℃, over temperature sound and light tracking alarm to protect the sample.

$ 177.00

Stainless steel liner and platinum Resistance Sensor, Temperature range RT-100 ℃, Inner Chamber dimensions 150 * 150 * 115mm, suitable for precision thermostatic experiments and auxiliary heating.

$ 185.00

Using stainless steel liner and high-performance CPU temperature control system, Temperature range RT-100 ℃, temperature control is accurate, easy to operate, suitable for precision thermostatic experimental needs.

$ 185.00

Temperature Fluctuation +/- 0.05 ℃, Pump Flow rate 8L/min, with break protection and over-temperature alarm function, using Pt100 temperature sensor to ensure High Accuracy measurement.

$ 698.00

Using stainless steel liner and top cover, high performance CPU processing chip with high sensitivity Platinum Resistance Sensor to achieve accurate temperature control, Temperature range RT-100 ℃, Tank volume 10L, suitable for precision thermostatic experiments.

$ 225.00

With water Bath thermostatic oscillation and low temperature refrigeration dual functions, thermostatic range 0-100 ℃, temperature accuracy +/- 0.5 ℃, support reciprocating oscillation and digital constant speed operation, suitable for a variety of sample fostering needs.

$ 1027.00

Microcomputer precision thermostatic Control system, Temperature Fluctuation +/- 0.05 ℃, Pump Flow rate 8L/min, with break-even protection and over-temperature alarm function, the inner Tank and the box are made of stainless steel.

$ 624.00

Temperature Fluctuation +/- 0.05 ℃, Display resolution 0.1 ℃, Pump Flow rate 8L/min, with off-couple protection and over-temperature alarm function, internal/external circulation mode, Tank volume 20L.

$ 399.00

Adopting stainless steel liner and platinum Resistance Sensor, Temperature range RT-100 ℃, temperature control is accurate and stable, suitable for precision thermostatic experimental needs.

$ 206.00

The double Compressor cascade refrigeration system is adopted, which has high refrigeration efficiency and low noise; the overall foaming and heat insulation of the Tank body reduces the loss of cooling capacity; Temperature Fluctuation +/- 0.05 ℃, Pump Flow rate 10L/min to ensure the uniformity of liquid in the Tank.

$ 2897.00

Imported PT100 temperature sensor and double Compressor cascade refrigeration system, high refrigeration efficiency and low noise, Temperature Fluctuation +/- 0.05 ℃, Tank volume 30L, Circulating pump Flow rate 10L/min to ensure Temperature uniformity.

$ 3656.00

The 24-hole design is compatible with the testtube with a diaMeter of less than 12mm, the maximum Operating temperature is 100 ° C, and the electronic ice box and intelligent thermostatic metal Bath module are optional to meet different temperature requirements.

$ 148.00

Adopt stainless steel liner and CPU temperature control system, Temperature range RT-100 ℃, Tank size 1200 * 150 * 115mm, suitable for precision thermostatic and auxiliary heating experiments.

$ 351.00

Articles

Application of High-Temperature Viscometer in Testing the Melt Viscosity Characteristics of Hot Melt Ink
This article introduces a method for testing the melt viscosity of hot-melt ink using a high-temperature viscometer. The test employs a rotational viscometer to measure the viscosity of three ink samples at different temperatures.
Application of High-Temperature Universal Testing Machine in the Study of Hot Modulus of Rupture of Refractory Materials
This article introduces the application of a high-temperature universal testing machine in measuring the hot modulus of rupture of refractory materials. It explains the working principle, testing procedure, and key parameters of the testing machine, such as the effects of heating rate, holding time, and loading rate.
How is a high-temperature muffle furnace applied in ash determination?
This article introduces the application of high-temperature muffle furnaces in ash determination. The principle of ash determination involves completely burning the sample at high temperatures, leaving behind inorganic mineral residues. The muffle furnace provides a stable and controllable thermal environment, ensuring accurate results.
Constant temperature bath selection: circulation method and temperature control range.
This article on thermostatic bath selection primarily analyzes two core factors: circulation mode and temperature control range. The circulation mode is divided into natural convection and forced circulation, where the former is suitable for simple static experiments, while the latter offers higher precision and is better suited for multiple samples or integration with external devices.
Ultrasonic Thickness Gauge Selection: Technical Considerations for Probe Configuration and Measurement Modes
This article primarily introduces the technical factors to consider when selecting an ultrasonic thickness gauge. In terms of probe configuration, the frequency affects both resolution and penetration depth, while crystal size determines adaptability to curvature and surface conditions. Dual-element probes offer a smaller dead zone compared to single-element probes, and delay-line probes are suitable for thin-wall and high-temperature applications.
Application of Three-Chamber High and Low Temperature Test Chambers in Rapid Temperature Cycling for Electronic Products
The three-chamber high-low temperature test chamber is used for reliability testing of electronic products, enabling rapid temperature transitions through independent high temperature, low temperature, and test zones. Compared to traditional single-chamber equipment, it reduces temperature change time and enhances testing efficiency.
High-temperature viscometer evaluates the flow characteristics of ceramic coatings before sintering.
This article introduces how to use a high-temperature viscometer to evaluate the flow characteristics of ceramic coatings before sintering. During measurement, the instrument detects changes in the viscosity of the coating sample under simulated sintering temperature conditions using rotational or oscillatory principles.
High-temperature viscometer measures the flow behavior of powder coatings in the molten state.
This article introduces the use of a high-temperature viscometer to measure the flow behavior of powder coatings in their molten state. Powder coatings need to melt and flow before curing, a process that directly affects the smoothness and performance of the coating.
Temperature uniformity of high-temperature aging test chamber for UV resistance testing of inks
This article discusses how the temperature uniformity of high-temperature aging test chambers affects the accuracy of ink UV resistance testing. Temperature uniformity refers to the deviation in temperature at various points inside the chamber, with smaller deviations leading to more reliable test results.
High-temperature aging test chamber accelerates life testing of electronic components.
The high-temperature aging test chamber accelerates the physical and chemical changes within electronic components by simulating high-temperature environments, thereby predicting their long-term performance and failure modes.
Thermal shock test chamber measures the thermal shock resistance of polymer films.
This article introduces how to test the thermal shock resistance of polymer films using a thermal shock test chamber. The test involves rapidly switching the film between high and low temperatures to simulate the drastic temperature changes that may occur in actual use, thereby generating thermal stress within the material.
Hot air aging oven measures the long-term thermal-oxygen life of engineering plastics.
This article introduces how to use a hot air aging oven to test the long-term thermal-oxidative lifespan of engineering plastics. The test is based on the Arrhenius equation, which accelerates material aging at high temperatures to simulate performance changes under actual usage conditions.
Melt flow index tester measures the processing fluidity of high-temperature engineering plastics.
This article introduces how a melt flow indexer measures the processing fluidity of high-temperature engineering plastics. It first explains the working principle of the instrument, which involves measuring the rate at which molten plastic passes through a standard die under specific temperature and pressure conditions to obtain the melt flow rate value.
High-temperature aging chamber for testing thermal-oxidative aging of plastic films.
This article introduces the method of testing the thermo-oxidative aging of plastic films using a high-temperature aging chamber. Thermo-oxidative aging refers to the chemical changes that occur in plastics under high temperature and oxygen exposure, leading to a decline in performance.
Humidity and heat test chamber tests the moisture absorption rate of resin under high temperature and high humidity conditions.
This article introduces the method of using a hygrothermal test chamber to measure the moisture absorption rate of resin under high temperature and high humidity conditions.