Rubber Secondary Vulcanization Oven

The rubber secondary vulcanization oven heats rubber products to further cross-link after molding, eliminating residual volatiles and stabilizing physical properties. Its functions include enhancing heat resistance and dimensional stability, and it is used in the production of rubber products such as tires and seals.
Selection
When selecting, consider that the temperature range should cover the process requirements, the inner chamber material should be corrosion-resistant, and the hot air circulation should be uniform. Determine the working chamber volume based on product dimensions, ensure temperature control accuracy matches process standards, energy consumption aligns with production cycles, and safety protection devices are complete.

Terms

Standards

Instruments

Using nitrile rubber material, length 100mm diaMeter 20mm, with excellent oil resistance and aging performance, suitable for inks proofing operation.

$ 123.00

Maximum load 0.5KN, specially designed for rubber materials to ensure stable and reliable tensile testing, suitable for a variety of Rubber mechanical properties testing.

$ 169.00

Suitable for medium hard resilience, rubber or microporous materials, Measurement range 0-100HE, more suitable for thinner or curved samples, can be used with handheld or supporting bench.

$ 183.00

Suitable for soft rubber, thermal plasticity resilience and other materials, Measurement range 0-100HO, resolution 1HO, can be used in hand or with the test bench, in line with ASTM D2240 standard.

$ 183.00

Suitable for soft rubber, thermal plasticity resilience and extremely soft plastics, Hardness Measurement range < 20 HDO, with real-time, peak, timing and average Measurement mode, can be connected to the computer for data management and analysis.

$ 590.00

Pin Travel 0~ 2.5mm, Measurement range 0~ 100HA, error +/- 1HA, can be used in the matching measuring rack or handheld, to meet a variety of rubber hardness testing needs.

$ 525.00

Suitable for low Hardness Rubber and Sponge Determination, Measurement range 20-90HAO, Indication Error ≤ +/- 1HAO, Portable design for quick field testing.

$ 141.00

Travel 0-1.25 mm, measurement error +/- 1HAM, pressure at the end of the needle 324-764mN, suitable for thin rubber samples with a thickness of 1.5mm or more, and can be used with a fixed load measuring rack.

$ 1122.00

Suitable for medium Hardness rubber, thermal plasticity resilience and other materials, Measurement range 0-100HB, can be hand-held or matched with a fixed load test bench to ensure stable measurement.

$ 183.00

Travel range of the crimp is 0~ 2.5mm, measurement error is +/- 1HAO, and the end pressure of the crimp is 0.55~ 8.05N, which is suitable for accurate Hardness detection of low Hardness rubber materials.

$ 251.00

Travel 0-1.25 mm, measurement error +/- 1HAM, suitable for thin rubber samples with a thickness of 1.5mm or more. Sensitivity is high, and it needs to be used with a constant load measuring rack to ensure Precision.

$ 921.00

Adopt double-pointer design, pressure needle Travel 0~ 2.5mm, measurement error +/- 1HAO, can be handheld or used with the bench, suitable for stable and fast detection of low Hardness rubber materials.

$ 148.00

Travel range 0~ 2.5mm, resolution 1HD, suitable for high-Hardness rubber and engineering plastics and other materials on-site determination, in line with multinational standards.

$ 501.00

Travel range of pressure needle 0~ 2.5mm, measurement error +/- 1HAO, suitable for low Hardness rubber and sponge materials, can be hand-held or installed on a fixed load measuring rack.

$ 525.00

Suitable for medium Hardness rubber and thermal plasticity resilience. Measurement range 0-100HDO, resolution 0.1HDO. Measurement mode of real-time, peak, timing and average. Linear dispersion analysis and storage.

$ 590.00

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?