Laboratory Heating Furnace

Laboratory heating furnaces generate heat through electric heating elements to provide controlled heating for samples. They are used in experimental processes such as material drying, heat treatment, and ash determination. In industries like coatings and plastics, they are employed for operations such as curing and aging tests.
Selection
When selecting, consider whether the heating temperature range matches the experimental requirements, and pay attention to whether the furnace chamber size can accommodate the samples. Check the heating rate and control precision, and note the insulation performance and energy consumption. Choose a durable structure based on the frequency of use, and confirm that the safety protection functions are complete.

Terms

Standards

Instruments

Enclosed aluminum silicate Furnace and nickel-chromium-aluminum alloy heating wire are used to reduce volatile gas corrosion; three-sided heating method combined with PID control, Temperature Fluctuation +/- 5%, accurate and stable temperature control.

$ 1138.00

Maximum temperature 1000 ℃, Furnace volume 2L, three-sided heating method with stage heating, PID control to ensure temperature fluctuation +/- 5%, K-type Thermocouple monitoring, with over-rise alarm and menu lock function.

$ 477.00

Three-sided heating method with aluminum silicate Furnace, high thermal efficiency and uniform temperature. PID control combined with K-type Thermocouple, temperature control accuracy +/- 5%, support 0~ 9999 minutes timing and phased heating.

$ 606.00

Pottery and porcelain fiber Furnace and multi-faceted heating technology, Temperature Fluctuation +/- 2 ℃, energy saving rate of 40%, with 30 program settings and over-temperature protection function.

$ 2744.00

The closed aluminum silicate Furnace and nickel-chromium-aluminum alloy heating wire are used, and the three-sided heating design ensures temperature uniformity, temperature control accuracy +/- 5% and over-rise alarm function. The Furnace volume is 7L to meet various heating needs.

$ 716.00

The highest temperature is 1300 ℃, the Furnace volume is 4L, the silicon carbide Rod heating element is resistant to high temperature and oxidation, the microcomputer PID control is accurate and reliable, and has multiple Safety protection measures.

$ 1934.00

Three-sided heating method to ensure uniform temperature, PID microcomputer and precision Sensor combination to achieve +/- 5% ℃ temperature control accuracy, closed aluminum silicate Furnace to reduce heat loss, support 0~ 9999 minutes timing and a variety of operating modes.

$ 990.00

Pottery and porcelain fiber Furnace and multi-faceted heating technology, temperature uniformity +/- 2 ℃, heating rate 1-30 ℃/min adjustable, with 30 programming and over-temperature protection function, energy saving rate of 40%.

$ 4737.00

Silicon carbide Rod double-sided heating quickly, high thermal efficiency, temperature control accuracy +/- 5% ℃, closed aluminum silicate Furnace has good thermal insulation, supports phased heating and regular operation, and can be equipped with exhaust device.

$ 1829.00

The highest temperature is 1400 ℃, the Furnace volume is 4.5L, and the aluminum oxide fiber Furnace and silicon carbon Rod heating elements are used to support the inert gas environment and ensure the uniform and stable sintering of the material.

$ 3720.00

Silicon carbon Rod double-sided heating to achieve rapid heating, 70 minutes up to 1300 ℃; PID control combined with K-type Thermocouple to ensure +/- 5% temperature accuracy; closed aluminum silicate Furnace with optional exhaust device to improve thermal efficiency and safety.

$ 909.00

Pottery and porcelain fiber Furnace and multi-sided heating technology, temperature uniformity up to +/- 2 ℃, heating rate 1-30 ℃/min adjustable, with 30 programming and double over-temperature protection, temperature control accurate and stable.

$ 3143.00

Closed aluminum silicate Furnace and nickel-chromium-aluminum alloy heating wire, three-sided heating design to ensure temperature uniformity, temperature control accuracy of +/- 5% ℃, with over-rise alarm and menu lock safety functions.

$ 570.00

Ceramic fiber Furnace to achieve multi-faceted heating, Temperature uniformity less than +/- 5 ℃, heating rate ≥ 10 ℃/min, with nitrogen filling device to slow down oxidation and flue discharge of harmful gases.

$ 1937.00

Silicon carbon Rod double-sided heating to achieve rapid heating, 70 minutes up to 1300 ° C; closed aluminum silicate Furnace with lightweight thermal insulation bricks to improve thermal efficiency; with over-rise alarm and menu lock function to ensure safe operation.

$ 699.00

Articles

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.
Muffle furnace is used for the determination of coating loss on ignition and ash content.
A muffle furnace is a laboratory heating device used to determine the loss on ignition and ash content of coating materials. By incinerating the sample at high temperatures, the organic components decompose and volatilize, leaving behind inorganic residues as ash.
Muffle Furnace Ash Test Method for Determination of Inorganic Filler Residues in Varnish
This article introduces the method of using the muffle furnace ash test to determine the residual amount of inorganic fillers in varnish. The inorganic substances in varnish can affect the performance of the coating, making accurate determination of ash content important for quality control.
Use of Muffle Furnace for Ash Determination in Pulp Inorganic Matter Testing
This article introduces the application of the ash determination muffle furnace in the detection of inorganic substances in pulp. The muffle furnace removes organic matter in the sample through high-temperature combustion, and the remaining inorganic residue, known as ash, is used to analyze the content of fillers and metal ions in the pulp.