High Temperature Test Oven

The high-temperature test oven heats the air inside the chamber using electric heating elements and maintains the set temperature with the help of temperature sensors and controllers. It is used for applications such as testing material heat resistance, sample drying, and heat treatment, and is commonly employed in experiments like paint curing and plastic aging.
Selection
Determine the internal chamber volume based on sample dimensions, select the temperature range and accuracy according to testing standards, and consider uniformity indicators. The stainless steel inner liner provides corrosion resistance, and the observation window facilitates monitoring. The forced air circulation ensures even heating, while the explosion-proof design is suitable for flammable materials.

Terms

Standards

Instruments

Application width 300mm, Spreader accuracy +/- 0.005mm, Drawdown blade can be quickly disassembled and cleaned, three independent temperature control oven to ensure uniform drying, suitable for a variety of substrates and Stock processing.

$ 24279.00

Ceramic fiber liner and door seal, high temperature and easy to clean; equipped with P.I.D fuzzy logic controller, Temperature Fluctuation +/- 0.5 ℃, support 7 groups of 63 steps programmable operation, circulating fan Rotation speed adjustable to ensure accurate and safe experiments.

$ 1711.00

The maximum effective temperature is 600 degrees Celsius, which is better than conventional 500-degree equipment; it is equipped with an independent temperature limiter to set the upper temperature limit and double protect high-value materials; the liner is made of thickened 304 stainless steel, which is resistant to high temperature and corrosion.

$ 1064.00

Ceramic fiber material, high temperature performance, temperature control accuracy of +/- 0.5 ℃, programmable multi-stage control, support 63 steps Program settings, easy to automate complex experiments.

$ 2378.00

Temperature range Rt + 10~ 200 ℃, Temperature Fluctuation +/- 1 ℃, Equipped with Forced Circulation Convection Channel and High Accuracy Platinum Resistance Sensor to ensure a stable high temperature environment, suitable for Sampling Handling and catalyst activation.

$ 359.00

Temperature range up to 500 ℃ and Fluctuation only +/- 1 ℃, equipped with hot air circulation system to ensure Temperature uniformity, support independent temperature limit alarm and RS485 Communication interface to meet the precise temperature control requirements in high temperature environment.

$ 1637.00

The maximum effective temperature is 600 ° C, which is better than the conventional 500 ° C equipment; it adopts thickened 304 stainless steel liner, which does not deform at high temperature and prevents acid and alkali corrosion; it is equipped with an independent temperature limiter to provide double temperature protection to ensure material safety.

$ 1779.00

Adopt thickened 304 stainless steel liner to resist high temperature and corrosion, the maximum effective temperature is 600 ° C, equipped with intelligent PID temperature control to reduce the temperature, support timing and over-temperature alarm, double-decked door insulation and energy saving.

$ 1756.00

The maximum effective temperature is 600 ° C, which is better than the conventional 500 ° C equipment; it adopts thickened 304 stainless steel liner, which does not deform at high temperature and is resistant to acid and alkali corrosion; it is equipped with an independent temperature limiter to provide double temperature protection to prevent material overheating damage.

$ 1285.00

The maximum temperature is 600 ° C, which is better than the conventional 500 ° C equipment; it adopts thickened 304 stainless steel liner, which is resistant to high temperature deformation and acid and alkali corrosion; it is equipped with intelligent PID temperature control system, which can reduce the temperature fluctuation by +/- 5%.

$ 1042.00

The thickened 304 stainless steel liner is resistant to high temperature and corrosion, with a maximum effective temperature of 600 ° C, which is better than conventional equipment. It is equipped with an intelligent PID temperature control system to reduce the phenomenon of flushing, and has timing and over-temperature alarm functions to ensure safe operation.

$ 1263.00

Ceramic fiber material, Temperature range RT + 20~ 400 ℃, liner size 450 × 450 × 450mm, with multi-stage programmable control, independent temperature limit alarm and fast and stable temperature control function, easy to clean and automatic operation.

$ 2052.00

Using ceramic fiber material, Temperature range RT + 20~ 400 ℃, liner size 980 × 1000 × 780mm, support multi-stage programmable control, independent temperature limit alarm system to ensure safe and stable operation of the experiment.

$ 5829.00

Using natural convection design to ensure uniform temperature, Temperature range RT + 10~ 400 ℃, Temperature resolution 0.1 ℃, with timing function and multiple alarm system to ensure safe and reliable operation.

$ 598.00

Temperature range RT + 20~ 400 ℃ and Fluctuation only +/- 1 ℃, equipped with hot air circulation system to ensure Temperature uniformity, support 1~ 9999 minutes timing function, optional independent temperature limit alarm and RS485 interface to enhance security and data recording.

$ 703.00

Articles

Research on the Stepwise Curing Process of Coatings Using Multi-Stage Temperature Control Ovens
This article investigates a novel process for achieving stepwise curing of coatings using a multi-stage temperature-controlled oven.
Evaluation of thermal aging life of hot melt adhesives using high-temperature oven method
This article introduces a method for evaluating the thermal aging life of hot melt adhesives using a high-temperature oven. The principle is based on the Arrhenius equation, where aging is accelerated by increasing the temperature to simulate performance changes under long-term use.
Thermogravimetric Analyzer for Determining the Solid Content of Coatings
Thermogravimetric analyzers determine the solid content of coatings by monitoring the change in sample mass with temperature, offering faster and more precise results compared to traditional oven methods.
What is the deviation between the moisture meter's rapid moisture measurement and the oven method?
This article primarily compares the differences between rapid moisture analyzers and traditional oven methods in measuring moisture. Understanding these differences helps in using rapid moisture analyzers more appropriately, ensuring data reliability while maintaining efficiency.
Key Technical Points for Determining Paper Moisture Using the 105℃ Oven Method
This article introduces the specific procedure for measuring paper moisture using the 105°C oven method. The process involves placing paper samples into a 105°C oven and drying them until their weight remains constant, then calculating the moisture content based on the weight difference before and after drying.
Oven combined with analytical balance for determination of solid content
This article introduces a method for determining the solid content of samples in the laboratory by combining an oven and an analytical balance.
Temperature gradient control in high-temperature ovens during thermal resistance testing.
The heat resistance test simulates the performance of materials under high temperatures using a high-temperature oven, and the accuracy of its results is highly dependent on the uniformity of temperature inside the oven. If the temperature gradient is poorly controlled, it can lead to uneven heating of samples from the same batch, compromising the validity of the test.
What are the differences between a vacuum oven and a conventional oven?
The main difference between a vacuum oven and a conventional oven lies in their working pressure. Conventional ovens operate at atmospheric pressure, heating through air convection, making them suitable for routine drying tasks. In contrast, vacuum ovens are evacuated to low pressure to reduce air presence, primarily relying on thermal radiation for heat transfer. This makes them ideal for processing heat-sensitive, oxidation-prone materials or those requiring thorough drying.
Natural Convection vs Forced Air Drying: What’s the Difference Between the Two "Schools" of Laboratory Ovens?
This article introduces two drying methods for laboratory ovens: natural convection and forced air drying. What are the differences between them?