Graphite Oven

The graphite oven utilizes high-purity graphite heating elements to evenly heat samples through radiative heat transfer, offering corrosion resistance and low thermal inertia. It is used in laboratories for high-temperature sample processing, such as paint curing and plastic aging tests, with stable temperature control to avoid metal contamination.
Selection
When selecting, consider the working temperature range and match the sample size with the chamber volume, pay attention to the heating rate and temperature control accuracy. The purity of graphite affects the service life, and corrosion resistance must be confirmed based on sample characteristics. Ensure the power supply specifications comply with on-site conditions and take into account the convenience of daily maintenance.

Terms

Standards

Instruments

Using high purity graphite material and fuzzy PID temperature control technology, temperature control accuracy +/- 0.1 ℃, with over-temperature alarm, temperature self-setting and thermostatic timing function, panel size 400 * 300mm.

$ 808.00

Temperature range RT +~ 400 ℃, high purity graphite + PFA coating heating method, monitoring accuracy +/- 0.5 ℃, suitable for a variety of sample pretreatment, support microwave digestion pretreatment and acid rush.

Using high purity graphite PFA coating heating method, Temperature range RT +~ 400 ℃, monitoring accuracy +/- 0.5 ℃, digestion number of 20 holes, suitable for a variety of sample pretreatment, atomic absorption and other analytical instruments.

Graphite electRode to reduce Polarization effect, automatic temperature compensation to ensure accuracy, Measurement range EC 0-3999μS/cm, TDS 0-2000ppm, resolution up to 1μS/cm, suitable for harsh environments.

$ 306.00

Temperature range RT +~ 400 ℃, high purity graphite + PFA coating heating method, monitoring accuracy +/- 0.5 ℃, suitable for a variety of sample pretreatment needs.

Temperature control accuracy of +/- 0.1 ℃, using fuzzy PID control technology, with over-temperature alarm and temperature self-tuning function, heating material is high purity graphite, panel size 600 * 400mm.

$ 1332.00

It can process 20 samples at the same time, the temperature control accuracy is +/- 1 ℃, and the corrosion resistance design and special oxidation resistance graphite block are used to ensure that the samples are heated evenly and have a long service life.

$ 1927.00

Temperature control accuracy +/- 0.1 ℃, Temperature range RT +~ 450 ℃, using fuzzy PID control to achieve fast stability and small overshoot, with over-temperature alarm and self-tuning function, heating material is high purity graphite.

$ 912.00

PID microchip control to achieve +/- 0.5 ℃ temperature control accuracy, surrounded by heating to ensure that the temperature difference between holes ≤ +/- 1 ℃, high purity graphite heating material acid and alkali corrosion resistance, double-decked insulation design to improve safety and efficiency.

$ 1558.00

Using high purity graphite + PFA coating heating method, temperature control accuracy +/- 0.5 ℃, digestion number of 25 holes, suitable for microwave digestion pretreatment and acid treatment, supporting a variety of analytical instruments.

Using fuzzy PID temperature control technology, the temperature overshoot is small and the Stabilization time is fast; the temperature control accuracy reaches +/- 0.1 ℃, the panel size is 600 * 400mm; with over-temperature alarm and self-tuning function, to ensure the safety and accuracy of the experiment.

$ 1227.00

Temperature range RT + to 400 ℃, monitoring accuracy +/- 0.5 ℃, fast digestion and energy saving, suitable for a variety of sample pretreatment needs.

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

Using PID microchip temperature control technology, temperature control accuracy +/- 0.5 ℃, temperature difference between holes ≤ +/- 1 ℃, surround heating to ensure the same batch of sample digestion effect, simple and efficient operation.

$ 2849.00

The instrument adopts PID microchip temperature control technology, temperature control accuracy +/- 0.5 ℃, temperature difference between holes ≤ +/- 1 ℃, surround heating to ensure consistent digestion of the same batch of samples, equipped with abnormal alarm and double-decked insulation system.

$ 1219.00

Articles

Vacuum adsorption coating machine solves the flatness challenge in the transfer of ultra-thin graphene films.
The vacuum adsorption coating machine transfers graphene films smoothly onto target substrates through controlled negative pressure, solving issues such as wrinkling, tearing, and contamination often encountered with traditional methods.
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.
Graphene Transparent Conductive Film Coating Process and Coater Selection
This article introduces the coating processes and coating machine selection for graphene transparent conductive films. The coating processes primarily include blade coating, slot-die coating, spin coating, and spray coating, with choices depending on the properties of the dispersion, the type of substrate, and the production scale.
Laboratory Preparation of Graphene Films by Doctor Blade Coating Method
Blade coating is a laboratory technique for preparing graphene films, where a graphene dispersion is evenly spread onto a substrate using a blade and then dried and processed to form a thin film. This method is simple to operate, cost-effective, easy to control in terms of thickness, and suitable for fundamental research and small-scale production.
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?