Toggle Categories
Get Instant Support
Choose your preferred way to connect with our team
Response Time
Within 8 hours on working days, 24 hours on holidays
High Temperature Furnaces
KinTek offers a comprehensive range of high-temperature furnaces—from lab and pilot to industrial production scales—operating up to 3000°C. A key KinTek advantage is the expert design and manufacturing of custom-made furnaces tailored to specific application needs, incorporating features such as diverse heating methods and ramp rates, ultra-high and dynamic vacuum systems, precisely controlled atmospheres with specialized gas circuits, integrated automation, and dedicated software and hardware development for advanced functionality.
Products
1400℃ Muffle Oven Furnace for Laboratory
Item Number: KT-14M
Vertical Laboratory Quartz Tube Furnace Tubular Furnace
Item Number: KT-VTF
Vacuum Dental Porcelain Sintering Furnace for Dental Laboratories
Item Number: KT-DV10
Ultra High Vacuum CF Flange Stainless Steel Sapphire Glass Observation Sight Window
Item Number: KT-VA01
Vacuum Heat Treat Furnace with Ceramic Fiber Liner
Item Number: KT-VF
2200 ℃ Tungsten Vacuum Heat Treat and Sintering Furnace
Item Number: KT-VT
Split Chamber CVD Tube Furnace with Vacuum Station CVD Machine
Item Number: KT-CTF12
Custom Made Versatile CVD Tube Furnace Chemical Vapor Deposition CVD Equipment Machine
Item Number: KT-CTF16
Inclined Rotary Plasma Enhanced Chemical Deposition PECVD Tube Furnace Machine
Item Number: KT-PED
Vacuum Hot Press Furnace Machine Heated Vacuum Press
Item Number: KT-VHP
Vacuum Hot Press Furnace Machine for Lamination and Heating
Item Number: KT-VLP
Mesh Belt Controlled Atmosphere Furnace Inert Nitrogen Atmosphere Furnace
Item Number: KT-MB
1700℃ Controlled Inert Nitrogen Atmosphere Furnace
Item Number: KT-17A
Electric Rotary Kiln Pyrolysis Furnace Plant Machine Small Rotary Kiln Calciner
Item Number: KT-RKTF
Stainless Steel Quick Release Vacuum Chain Three Section Clamp
Item Number: KT-VA06
Vacuum Heat Treat Sintering Furnace with Pressure for Vacuum Sintering
Item Number: KT-VPS
600T Vacuum Induction Hot Press Vacuum Heat Treat and Sintering Furnace
Item Number: KT-VH
2200 ℃ Graphite Vacuum Heat Treat Furnace
Item Number: KT-VG
RF PECVD System Radio Frequency Plasma Enhanced Chemical Vapor Deposition
Item Number: KT-RFPE
Stainless Steel KF ISO Vacuum Flange Blind Plate for High Vacuum Systems
Item Number: KT-VA12
Electric Rotary Kiln Small Rotary Furnace for Activated Carbon Regeneration
Item Number: KT-CRF
REQUEST A QUOTE
Our professional team will reply to you within one business day. Please feel free to contact us!
Related Articles
Why Your Graphene Purity Drops at 1050°C: The Hidden Role of the Sample Carrier
Discover why material choice for sample boats is critical for graphene oxide reduction and how high-purity quartz prevents contamination and thermal failure.
Why Your Muffle Furnace Might Be Masking Your Alloy Kinetics—And How to Fix It
Discover why slow heating rates in conventional muffle furnaces compromise zirconium alloy research and how high-rate resistance heating reveals true phase transformation kinetics.
Why Your C/C Composite Coatings Flake—And the Role of Vacuum in "Self-Healing" Mastery
Discover why C/C composite coatings fail at high temperatures and how vacuum well furnaces enable dense, self-healing protective layers up to 1680°C.
Why Your Brazing Alloy Rods Lack Uniformity—And How the Right Crucible Fixes It
Discover why Ti–Cu–Ni brazing fillers often suffer from inconsistent quality and how graphite crucibles in high-temp furnaces ensure uniform alloy composition.
Why Your Ti-Al Alloys Are Brittle After Annealing—And How to Achieve Perfect Homogeneity
Discover why Ti-Al alloys often fail during high-temperature annealing and how high-vacuum environments solve oxidation and embrittlement for superior material properties.
The Hidden Variable Ruining Your Oxidation Experiments—And How to Eliminate It
Learn why pre-drying crucibles at 1050°C is essential for accurate NiCrAlY coating analysis and how KINTEK furnaces provide the thermal stability required.
Beyond the Quench: Why Precision Tempering is the Invisible Line Between Performance and Failure
Discover why laboratory-grade precision tempering is critical for steel heat treatment, from stress relief to stabilizing complex microstructures.
The Invisible Saboteur: Why Titanium Brazing Fails and How High-Purity Quartz Tubes Restore Material Integrity
Learn how high-purity quartz tubes prevent oxygen embrittlement and "alpha-case" formation in Ti-15-3 titanium alloy brazing and heat treatment.
The Invisible Microstructure: Why Precise Temperature Control is the Make-or-Break Factor in Vacuum Brazing
Discover how precise temperature control in vacuum furnaces prevents brittle intermetallic layers and ensures high-strength metallurgical bonds in brazing.
Why Your Carburized Parts Have Uneven Hardness—And the Hidden Science Behind Fixing It
Struggling with inconsistent case depth in vacuum carburizing? Discover how nozzle distribution and gas flow dynamics impact your results and how to achieve uniform hardness across every batch.
Beyond 2000°C: Why Your High-Temperature Synthesis Fails and How W-Re Sensors Change the Game
Discover why standard temperature sensors fail in ultra-high-temp synthesis like nitrated ferrovanadium and how W-Re thermocouples ensure process repeatability.
Eliminating the 'Cold Core': Why Furnace Geometry is the Secret to Uniform Vacuum Tempering
Discover how changing vacuum tempering furnace channels from square to circular optimizes airflow, eliminates temperature gradients, and ensures batch consistency.
Why Your Electrochromic Electrodes Fail During Sintering—And How Vacuum Control Restores Transparency
Discover how vacuum sintering prevents ITO degradation and TiO2 reduction in electrochromic electrodes, ensuring high transparency and conductivity.
Why Your High-Speed Steel Nitriding Fails Under Stress—And the Gas Ratio That Fixes It
Discover why precise H2/N2 gas ratios are the secret to durable plasma nitriding in powder metallurgy high-speed steel and how to prevent layer peeling.
Why Your Nano-TiO2 Fails to Respond to Visible Light: The Critical Role of Continuous Vacuum Pumping
Discover why static vacuum systems fail in nano-titanium dioxide heat treatment and how continuous pumping ensures stable oxygen vacancies for visible light response.
Why Your Galfenol Sheets Fail to Recrystallize—And How Precise Atmosphere Control Unlocks High Performance
Discover why Fe81Ga19 secondary recrystallization often fails and how high-precision atmosphere furnaces enable Goss grain growth without inhibitors.
Why Your Ultra-High-Strength Steel Isn't Living Up to Its Potential—And How Vacuum Technology Fixes It
Discover how vacuum electric furnaces eliminate hidden impurities like hydrogen and oxygen to ensure the mechanical integrity of ultra-high-strength steel.
Why Your Ti-6Al-4V Parts Crack Under Pressure—The Hidden Science of Vacuum Heat Treatment
Discover why Ti-6Al-4V components fail after 3D printing and how high-vacuum heat treatment prevents embrittlement while maximizing material ductility.
Why Your Copper Foil Diffusion Bonds are Sticking—And the Invisible Layer That Fixes It
Struggling with samples sticking to molds in hot-press diffusion bonding? Learn how graphite powder prevents inter-diffusion and protects your equipment.
Why Your 3D-Printed Titanium Parts Are Brittle—And How Vacuum Annealing Restores Their Strength
Learn why Ti-6Al-4V parts produced via SLM require vacuum annealing to eliminate residual stress, prevent oxidation, and achieve industrial-grade ductility.