Vacuum oven

Vacuum Furnaces - Your Key to Precise Manufacturing Processes

A vacuum furnace is a device used for heat treatment and thermochemical treatment.

The furnace housing is constructed using double-wall technology with a cooling circuit that ensures a so-called “cold wall.” A heating chamber is installed within the housing and is available in various versions depending on the specific application requirements, i.e., QUANTUM-G – a graphite-insulated heating chamber with gas cooling or oil cooling; QUANTUM-OQ and QUANTUM-M – metal-insulated heating chambers with vacuum and gas cooling.

The furnace is equipped with a gas-cooling or oil-cooling system, as well as a vacuum system operating at various levels, ranging from low vacuum (10^-1 mbar) to ultra-high vacuum (10^-9 mbar). The HPQ gas cooling pressure is 1, 6, 10, 15, and 25 bar abs.

AMP vacuum furnaces are characterized by high efficiency and a wide range of industrial applications, including the aerospace, automotive, tooling, defense, medical, metallurgy, research, and education sectors, among others.

Laboratory vacuum oven

A laboratory vacuum furnace is an advanced piece of equipment used in research and technological processes where precise control of the atmosphere and temperature is critical. In modern laboratories, a laboratory vacuum furnace enables the performance of repeatable heat treatment processes under conditions of limited oxygen access, which minimizes the risk of material oxidation. As a result, the laboratory vacuum furnace is used in metallurgy, materials engineering, and scientific research.

 

Every laboratory vacuum furnace is designed to ensure maximum process purity and stable operating parameters. Depending on the configuration, a laboratory vacuum furnace can be equipped with various heating and cooling systems, allowing it to be adapted to specific research needs. Many research facilities also use vacuum furnaces as complementary solutions to laboratory equipment.

 

A laboratory vacuum furnace is used for annealing, hardening, and sintering high-purity materials. In such processes, vacuum furnaces play a crucial role in the production of components for the aerospace and medical industries, where the highest quality of material structure is required. A laboratory vacuum furnace also enables experiments on new metal alloys and ceramic materials.

 

The laboratory vacuum furnace is equipped with advanced PLC controllers that enable precise programming of thermal cycles. As a result, the laboratory vacuum furnace can operate in automatic mode, ensuring repeatable results and process safety.


One of the key aspects of operating this type of equipment is maintaining an appropriate vacuum level and monitoring the system’s leak tightness. Leak detection and automatic pressure control systems enable a rapid response to changes in operating parameters. High-quality seals and the use of high-temperature-resistant materials have a direct impact on the stability of the entire technological process. Additionally, integration with monitoring systems enables the recording of process data.


Modern solutions in heat treatment technology also focus on energy efficiency and minimizing heat loss. The development of energy recovery systems and intelligent control algorithms is making these devices increasingly cost-effective to operate. In research applications, the ability to precisely replicate process conditions is particularly important, as it enables advanced materials experiments and strength tests.


In practice, it is also very important to properly prepare the feedstock for the process, as a laboratory vacuum furnace requires that the materials be of high purity and that all surface contaminants be removed. Even small traces of oils, moisture, or oxides can affect the course of the process and the final properties of the material. Therefore, before starting a cycle, the laboratory vacuum furnace is often used in conjunction with additional preparatory steps, such as ultrasonic cleaning or preheating.

 

In modern laboratories, laboratory vacuum furnaces are also integrated with online monitoring systems that enable remote control of process parameters. The operator can monitor temperature trends, vacuum levels, and changes in working gas pressure in real time. Such solutions enhance workplace safety and allow for a quick response in the event of deviations from set values.

 

Laboratory vacuum furnaces are also increasingly used in research on new functional materials, such as shape-memory alloys and nanocrystalline materials. Thanks to precise control of parameters, it is possible to obtain unique structures that cannot be produced under standard atmospheric conditions. In this context, the laboratory vacuum furnace is becoming a key tool in the development of modern materials engineering.

 

It should also be noted that laboratory-scale vacuum furnaces feature a compact design, which allows them to be installed even in limited research spaces. Despite their smaller size, they retain the full functionality of large industrial systems, ensuring high precision and process repeatability.

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Quantum-G

Quantum OQ are vacuum furnaces with a graphite heating chamber that can be cooled using oil and/or gas at pressures of 1 bar, 6 bar, 10 bar, 15 bar, 20 bar, and 25 bar. Oil or nitrogen can be used to cool the load. The operating temperature ranges from -180°C to 1700°C.

Quantum-M

Quantum M are vacuum furnaces with a metal heating chamber that utilize materials from the lanthanide group, such as molybdenum or tungsten. These materials allow for cooling in gas up to 2 bar. Nitrogen, argon, or special helium or hydrogen mixtures can be used to cool the load.

Quantum-OQ

Quantum OQ are vacuum furnaces with a graphite heating chamber that can be cooled with oil and/or gas up to 15 bar. Oil or nitrogen can be used to cool the load. The operating temperature ranges from ambient temperature to 1300oC.
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