Laboratory high-temperature tube furnaces have a wide range of applications in laboratory research, and their uses can be summarized in the following aspects:
Materials Science Research:
Material synthesis: used to prepare new materials, such as nanomaterials, ceramics, composite materials, etc. By precisely controlling temperature and atmosphere, specific structures and properties of materials can be achieved.
Heat treatment: annealing, normalizing, tempering and other heat treatment processes are carried out on metals, alloys, and other materials to study the mechanical properties and microstructure changes of the materials.
Sintering: used in the sintering process of powder metallurgy and ceramic materials to bond powder particles into a dense solid at high temperatures.
Chemical research:
Chemical Vapor Deposition (CVD): Depositing thin films through gas-phase reactions at high temperatures, such as preparing graphene, carbon nanotubes, and semiconductor thin films.
Catalyst research: Evaluate the activity and stability of catalysts at high temperatures, study the catalytic reaction mechanism and kinetics.
Thermal decomposition: studying the decomposition behavior of compounds at high temperatures, such as preparing oxide, nitride, and carbide materials.
Environmental Science:
Pollutant analysis: Simulate the high-temperature incineration process to study the behavior and removal efficiency of pollutants in exhaust gas and wastewater at high temperatures.
High temperature and corrosion resistance testing of materials: evaluating the stability and lifespan of materials in extreme environments.
Geological and mineralogical research:
Melting and Recrystallization of Rocks and Minerals: Simulating Geological Conditions to Study Magma Formation and Mineral Recrystallization Processes.
High temperature geological experiment: studying chemical reactions and mineral transformations within the Earth under high temperature and pressure conditions.
Electronic and Semiconductor Research:
Diffusion and doping: In semiconductor manufacturing, the electrical properties of materials are controlled through high-temperature diffusion and doping.
Oxidation and annealing: Used for thermal oxidation, annealing, and heat treatment of silicon wafers to improve material properties.
New energy research:
Lithium battery materials: Used for the preparation and modification of positive and negative electrode materials for lithium-ion batteries, such as lithium iron phosphate and lithium titanium oxide.
Fuel cell materials: Study the material preparation and performance optimization of proton exchange membrane fuel cells and solid oxide fuel cells.
Teaching and Training:
Experimental teaching: In the experimental teaching of universities and research institutions, tube furnaces are used to demonstrate and verify the basic principles and processes of materials and chemical reactions.
Operation training: Train students and researchers on the correct use of high-temperature equipment and experimental operations.
In addition, the laboratory high-temperature tube furnace also has up to 32 stages of heating program function, which can automatically work and shut down after completion. Its heating speed is fast and adjustable, with a lightweight appearance and convenient operation. These characteristics make laboratory high-temperature tube furnaces one of the widely used equipment in laboratory research.