High-Throughput Joule Heating Device XN-HTG
SKU: XN-HTG
High-Throughput Joule Heating Device XN-HTG automates multi-sample Joule heating with a 150–3200 °C measurement range, flash temperatures up to 3000 °C, heating rates of ≥1000 °C/s, and programmable vacuum or controlled-atmosphere processing.
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Name: High-Throughput Joule Heating Device
Equipment Type: High-Throughput Joule Heating Device
Product Code: XN-HTG
Brand: Xnergy
Product Introduction:
The XN-HTG is designed for automated, high-throughput Joule heating of multiple research samples. It integrates programmable heating, vacuum and atmosphere control, automatic loading and unloading, water cooling, PLC control, and experiment-data traceability to shorten screening cycles and reduce per-sample resource consumption.
The system is suited to nanoparticle synthesis, carbon nanomaterials, ceramics, glass, polymers, battery and fuel-cell materials, catalysts, thermoelectric materials, and other advanced-material development.
Key Features:
150–3200 °C temperature-measurement range
Flash temperature up to 3000 °C
Heating rate of ≥1000 °C/s
Automated multi-sample processing
At least two sintering trays with 64 graphite-sheet positions per tray
Infrared non-contact temperature measurement
PID temperature stabilization with multiple parameter channels
Vacuum or protective-atmosphere operation
PLC and touchscreen control
Process-template storage and experiment-data traceability
Technical Specifications:
| Parameter | Specification |
|---|---|
| Model | XN-HTG |
| Temperature Measurement Range | 150–3200 °C |
| Maximum Temperature | 3000 °C in flash-heating mode |
| Holding Duration | ≤1500 °C: continuous; 1500–2000 °C: ≤60 min; 2000–2400 °C: ≤10 min |
| Maximum Heating Rate | ≥1000 °C/s |
| Temperature Measurement | Infrared non-contact |
| Measurement Accuracy | ±5‰ |
| Processing Cycle | 30 s per graphite sheet, excluding heating time |
| Atmosphere and Vacuum | Supports high-vacuum pre-evacuation and chamber-atmosphere replacement through an external compatible gas source |
| Regulated DC Power Supply | 24 V / 1000 A |
| Maximum Current Output | 0–1000 A |
| Temperature Stabilization | Continuously adjustable power with PID control and real-time auto-tuning |
| Multi-Channel Processing | Multiple sintering modes with at least four preset parameter sets; automated process execution |
| Sintering Trays | At least two tray sets; 64 graphite-sheet positions per tray; two positioning sensors |
| Cooling Method | Water cooling |
| Software Control | Time, current, temperature, segmented, and manual control |
| Control System | PLC-integrated heating, vacuum, and automatic loading/unloading control with real-time status feedback |
| Data Management | Template storage, batch recording, automatic experiment-data collection, storage, and upload |
| Power Supply | Configured according to applicable local electrical standards; facility current capacity of 63 A is required |
| Safety | Overcurrent protection and emergency-stop button |
Applications:
Metal-alloy, oxide, and sulfide nanoparticle synthesis
RGO, CNF, CNT, and biomass-derived carbon materials
Ceramics, glass, polymers, and temperature-sensitive materials
Battery, fuel-cell, CO₂-reduction, and water-electrolysis research
Thermoelectric conversion and flexible-electronics materials
High-throughput materials screening
Note: Tray, fixture, atmosphere, heating profile, and automation configuration can be adapted to project requirements. Related equipment includes the Flash Joule Heating Device XN-FJH-400V, Joule Quenching Heating Device XN-HTL-1532E, Joule Ultrafast Heating System XN-HTS Series, High-Temperature Joule Heating System XN-1532E, and Precipitation Reactor XN-SPR.
