PRODUCTS
ABOUT
Industrial Furnaces
In the competitive industrial world of today, thermal processing and precision heat treatment are central to manufacturing superiority. Industrial furnaces are the cornerstone of innumerable production processes, allowing companies to realize superior material characteristics, quality consistency, and peak operation efficiency. From aerospace parts to automotive products, our thermal systems are advanced solutions providing the controlled heat atmospheres required for today’s manufacturing.
At Tempsens, we know the choice of industrial furnace solution impacts your production ability, efficiently using energy, and your bottom line. Every industrial heating solution we offer combines decades of engineering know-how with modern updates to meet the toughest thermal processing needs in a wide variety of industrial applications.
When heat treating, testing or conducting sophisticated manufacturing processes, our types of industrial furnaces will give you the consistent temperature uniformity, accurate control and predictable performance that today’s industrial professionals expect.
Pit Type Electric Furnace - PF
Temperature Range: 800°C – 1200°C
Conveyor Mesh Belt Furnace - CMF
Temperature Range: 250°C – 1200°C
Cupellation Furnace - TCF
Temperature Range: 800°C – 1200°C
Rotary Kiln Furnace
Temperature Range : 1100°C
Box / Chamber Furnace - BF/CF
Temperature Range: 500°C – 1800°C
Shuttle Kiln / Bogie Hearth Furnace BHF
Temperature Range: 500°C – 1600°C
Industrial Bottom Loading Furnace - BLF-I
Temperature Range: 500°C – 1800°C
Annealing Furnace - AF
About Industrial Furnaces
Characteristics of Industrial Furnaces
Accurate Temperature Control: Sophisticated PID controllers with ±1°C accuracy guarantee stable processing conditions and reproducible results on every thermal cycle.
Better Temperature Uniformity: Carefully arranged heating units and engineered insulation structure provide even heat distribution across the chamber.
Broad Temperature Range: Operating capacity from 500°C to 3000°C supports varied industrial processes and material treatments.
Strong Construction: High-quality materials such as FeCrAl, MoSi₂, and custom refractories provide long operating life.
Energy Conservation: High-performance insulation material and thermal engineering reduce heat loss, lowering operation costs and environmental footprint.
Safety Systems: Integrated door limit switches, over-temperature protection, and emergency shutdown systems provide operator protection.
Flexible Configuration: Supplied in various loading configurations such as front-loading, top-loading, and bottom-loading designs.
Advanced Instrumentation: NABL-certified thermocouples and programmable controllers with data logging facilities.
Types of Industrial Furnaces
Annealing Furnaces: Dedicated conveyor belt systems for continuous heat treating applications, good for stress relieving and changing material properties.
Cupellation Furnaces: High precision refining equipment for separating precious metals which ensures precision in atmosphere and exhaust systems.
Pit Furnaces: With its cylindrical vertical shape this Heat Tracing Solutions is ideal for deep heat treating applications with sealed retorts for controlled atmosphere processing.
Box/Chamber Furnace: General-purpose high temperature furnace for temperatures up to 1800°C for sintering, melting and advanced materials processing.
Shuttle Kiln/Bogie Hearth Furnaces: Heavy industrial equipment with wheeled loading platforms for heat treating in commercial production, done with large amounts of steel.
Industrial Bottom Loading Furnace: With a max/hot temperature range of 1800°C, with multi-layers of high temperature refractory bricks is used in glass, sintering etc.
Conveyor Mesh Belt Furnace: Dedicated conveyor belt for continuous heating process with a different type of ripple style muffles and ambient temperature approaching 1150°C.
Industrial Furnace Applications
Heat Treatment Applications: Annealing, hardening, tempering, normalizing, and relieving of metals and alloys
Materials Processing: Ceramic sintering, powder metallurgy, advanced composite material manufacturing
Quality Control Testing: Analysis of ash content; material evaluation; thermal analysis techniques
Manufacturing Processes: Glass melting; ceramic firing; brazing processes; component assembly
Research and Development: Materials science studies; prototyping; research into process optimization
Aerospace sector: Heat treating of critical parts including turbine blades, structural components, and specialty alloys.
Automotive sector: Processing of engine components; gear heat treating; and development of advanced materials.
Electronics manufacturing: Semiconductor processing; electronics component manufacturing; applications of specialized electronics industrial furnaces.
Medical device manufacturing: Sterilization processes; processing of biocompatible materials; manufacturing of miniaturized precision components.
Why Choose Tempsens?
Decades of hands-on expertise delivering reliable thermal solutions
Full manufacturing control, from raw material to finished product, backed by state-of-the-art facilities
Certified to ISO 9001:2015, ISO 14001:2015, ISO 45001:2018, ATEX, and IECEX with five NABL accredited labs.
Custom engineering for your specific process, or application
FAQ
Frequently Asked Questions
Find answers to frequently asked questions related to Industrial Furnaces.
Tempsens box furnace has NABL approved thermocouples to ensure measurement accuracy and compliance with regulatory requirements. The safety features of the furnace include an overheat protection controller, microprocessor controlled temperature management system, door limit switch, and automatic shutdown; these features work together to ensure the furnace operates safely, and meets all standards for industry compliance.
Yes. Tempsens is a box furnace manufacturer that allows for several different customization options, including gas purging for Ar, N2, O2, H2, CO etc. The ability to integrate a vacuum pump for heat treatment. It also has the option to use programmable PID controllers with RS232/RS-485/Ethernet data logging, and custom internal dimensions.
The industrial box furnace maintains uniform heating with the help of heating elements which are positioned on the sides of the furnace chamber. Microprocessor-based PID controllers continuously monitor and adjust power output via thyristor or SSR units. NABL-certified thermocouples offer precise temperature feedback to eliminate hot spots and thermal gradients inside the heating chamber.
Temperature capability for box furnaces: 900 – 1800°C based on type of heating element. NiCr elements are used in the CF-900 and the CF-1600 and CF-1800 use MoSi₂ elements. The broad temperature range is ideal for many different applications, from simple heat treatment processes to more advanced sintering of materials and glass melting.
Tempsens box furnace is equipped with either refractory brick or lightweight ceramic fiber board insulation. The heating elements are positioned on chamber sides ensuring uniform temperature distribution. For temperatures up to 1600°C & 1800°C, MoSi₂ elements are used, while lower models utilize FeCrAl or SiC elements.
Yes, definitely. Tempsens can provide customized bottom loading furnaces that can be configured to fit your particular industrial application. Some of the options TempSens may include are: Gas/vacuum purging, Datalogging Software, and Ethernet connectivity.
Yes, because of the insulated work platform and the DC motor lift mechanism that provides stability to the work platform throughout the programmed temperature range, there will be very little variation in temperature throughout the cycle.
The industrial bottom-loading furnace utilizes high-efficiency heating elements (SiC, FeCrAl, MoSi2) at operating temperatures of 1200C, 1400C, and 1800C, which are configured for these temperature profiles. The BLF-I can also produce a heated load cycle.
Bottom loading contributes to temperature uniformity by providing strategically placed heating elements, multiple layers of insulation that allow for diffuse thermal distribution and no thermal gradient that would adversely affect material quality.
Bottom loading reduces the amount of vibration experienced during material handling; making it the best approach to handling brittle ceramics and delicate glass components that need as little mechanical disturbance as possible.
