The 1700℃ 8-Chamber High Throughput Automated Box Furnace is a premium high-temperature intelligent heat-treatment equipment developed for high-throughput R&D of new materials, multi-batch parallel experiments and small-batch precision sintering.

1. Product Description
The 1700℃ 8-Chamber High Throughput Automated Box Furnace is a premium high-temperature intelligent heat-treatment equipment developed for high-throughput R&D of new materials, multi-batch parallel experiments and small-batch precision sintering. It adopts a modular heating system with eight independent chambers, integrating 8 sets of individually controlled heating cavities within one unit. Each chamber supports independent temperature control, separate start-stop operation without mutual interference. Its maximum working temperature reaches 1700℃, with a stable long-term operating temperature of 1600℃.
Different from conventional single-chamber furnaces that can only complete one set of experiments per run, this furnace enables simultaneous heat-treatment of 8 groups of samples under varied temperatures and processes. It supports parallel control experiments, synchronous testing of multiple formulations and parallel processing of multi-batch samples.
Built upon a fully-automatic intelligent control architecture, the equipment supports automatic door actuation, programmed temperature ramping & cooling, recipe storage, real-time data acquisition and remote control. It can be integrated with robotic arms and automatic material platforms to realize unattended operation. Equipped with premium Grade-1800 molybdenum disilicide heating elements and high-purity alumina-fiber insulated chambers, it delivers uniform temperature field, accurate temperature control and outstanding high-temperature stability. Fitted with independent gas circuit systems, it adapts to ambient-air, vacuum and inert-gas working conditions. It effectively addresses pain points of traditional high-temperature furnaces such as low efficiency, long experimental cycles and large batch-to-batch deviations, serving as core equipment for high-throughput material screening, new-process iteration and scaled specimen production.
2. Application Fields
Benefiting from high throughput, high precision, multi-condition compatibility and superior automation, this furnace is widely deployed in university research institutes, new-material R&D, new-energy, ceramics, metallurgy, precision electronics and other high-end industries. Typical applications are shown below:
Universities & research institutes: High-throughput experiments, multi-group parallel control tests, new-material formula screening, sintering-parameter optimization, sample annealing, crystallization and high-temperature modification for materials science, condensed-matter physics, chemistry and chemical engineering.
New-energy material industry: High-temperature sintering, atmosphere-protected heat treatment, pyrolysis and shaping of lithium-battery cathode & anode materials, solid electrolytes, photovoltaic ceramics, graphene, nanopowders and superconducting materials.
Structural & functional ceramics industry: High-temperature dense sintering, debinding and annealing of special-ceramic powders and components made of alumina, zirconia, silicon carbide and silicon nitride.
Metallurgy & powder-material industry: High-temperature calcination, redox reaction, vacuum degassing and high-temperature purification of cermet composite powders, alloy powders, rare-earth materials and mineral raw materials.
Precision electronics & semiconductor industry: Non-oxidative high-temperature heat treatment, stress relief and high-temperature curing for electronic ceramic substrates, magnetic materials, semiconductor powders and precision components.
AI-driven intelligent-material R&D platforms: Compatible with automated experimental lines and intelligent material-screening systems. Cooperates with robotic arms to achieve fully-automatic loading/unloading and continuous unattended multi-batch heat-treatment.
Quality inspection & standardized testing: Synchronous ashing, thermal-stability testing and high-temperature-resistance detection for multi-batch samples, greatly improving testing efficiency and accuracy of data comparison.
Main Technical Parameters
Product Name | 1700℃ 8-Chamber High-Throughput Automated Box Furnace |
Product Model | CY-1700X-MGI-8-AD |
Maximum working temperature | 1700℃ (short-term peak temperature) |
Long-term continuous working temperature | ≤1600℃ |
Number of chambers | 8 chambers (independent temperature control & independent operation) |
Effective chamber dimension per chamber | 120×120×120 mm (1.7 L volume per chamber) |
Effective uniform hot-zone dimension | 80×80×80 mm |
Temperature-control accuracy | ±1 ℃ (independent precise control for each chamber) |
Temperature-field uniformity | ±5 ℃ within constant-temperature range |
Heating rate | 0~10 ℃/min (independently adjustable & programmable per chamber) |
Heating element | Grade-1800 molybdenum disilicide heating element (high-temp resistant, oxidation-resistant, long service life) |
Temperature sensor | Type-B thermocouple (high-temp resistant, accurate measurement) |
Temperature-control program | 30+-segment programmable temperature ramping-cooling curves, recipe storage & one-key recall |
Working atmosphere | Ambient air, nitrogen, argon and other inert gases (independent gas circuit for each chamber) |
Automation configuration | Motor-driven automatic furnace door, robotic-arm compatible, unattended automatic operation |
Communication function | Host-computer connectivity, real-time data acquisition, export and remote control |
Insulation material | Grade-1800 high-purity alumina ceramic fiber + high-temperature protective coating |
Rated voltage & power | 380V three-phase, total power 9 kW (customizable) |
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