
Single-Zone Tube Furnace XN-T1200 – 1200 °C, Quartz Tube, PID 30-Step Programmable, ±1 °C Accuracy | Xnergy
Single-Zone Tube Furnace XN-T1200 — compact laboratory tube furnace for heat treatment experiments in universities, research institutes, and industrial facilities. Top temperature 1200 °C, working temperature ≤ 1100 °C, ±1 °C temperature accuracy, intelligent 30-step programmable PID control with auto-tuning, suggested heating rate 0–10 °C/min. Heating chamber made of high-purity alumina ceramic fiber; quartz tube (Φ40–Φ120 mm customizable, heating zone 200–440 mm customizable). Carbon steel double-layer shell with air cooling. Stainless steel vacuum flange sealing. Supports atmospheric, vacuum, and controlled-atmosphere working environments. Over-temperature and burnout protection. Power supply configurable per local electrical standards.
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Name: Single-Zone Tube Furnace XN-T1200
Equipment Type: Laboratory Single-Zone Tube Furnace (Top Temperature 1200 °C) with 30-Step Programmable PID Control
Product Code: XN-T1200
Product Introduction:
The Single-Zone Tube Furnace XN-T1200 is a compact laboratory tube furnace widely used for heat treatment experiments in universities, research institutes, industrial enterprises, and other facilities. The XN-T1200 features an intelligent programmable temperature control system with phase-shift triggering, thyristor power control, and a 30-step programmable PID controller for precise temperature control. Furnace tubes are available in a variety of materials — including heat-resistant alloys, quartz, and alumina — to accommodate diverse experimental and production needs. The XN-T1200 offers safety, reliability, ease of operation, high temperature control accuracy, excellent furnace temperature uniformity, customizable temperature zones, and optional atmosphere and vacuum configurations.
Applications:
- Material Synthesis and Sintering — research and development of new materials, including synthesis and sintering of nanomaterials, superconducting materials, ceramics, and composite materials
- Metal Heat Treatment — precise temperature control for annealing, quenching, and other heat treatments of metals and alloys to alter microstructure and properties
- General laboratory heat-treatment experiments in universities, research institutes, and industrial settings
Features:
- Polycrystalline alumina ceramic fiber furnace — energy-saving and corrosion-resistant
- Microcomputer PID control — temperature control accuracy up to ±1 °C
- Real-time monitoring meter on the furnace body for direct observation
- Over-temperature and burnout protection with alarm — high safety factor
- 0Cr27Al7Mo2 resistance heating wire — capable of working up to 1200 °C
- Horizontal furnace structure with carbon steel double-layer shell and air-cooling system
- Stainless steel vacuum flange sealing with valve and mechanical pressure — supports atmospheric, vacuum, and controlled-atmosphere operation
Technical Parameters:
| Parameter | Value |
|---|---|
| Model | XN-T1200 |
| Top Temperature | 1200 °C |
| Working Temperature | ≤ 1100 °C |
| Tube Material | Quartz tube |
| Tube Diameter (Customizable) | Φ40 – Φ120 mm |
| Heating Zone Length (Customizable) | 200 – 440 mm |
| Heating Zones | Single or multiple temperature zones (customizable upon request) |
| Furnace Chamber Material | High-purity alumina ceramic fiber |
| Heating Element | 0Cr27Al7Mo2 resistance wire |
| Furnace Shell Structure | Carbon steel shell, double-layer with air-cooling system |
| Heating Rate | Suggested 0 – 10 °C/min |
| Temperature Control Accuracy | ±1 °C |
| Temperature Control Method | PID control with auto-tuning, intelligent 30-step programmable |
| Furnace Structure | Horizontal |
| Temperature Protection | Over-temperature and burnout protection |
| Working Environment | Atmospheric pressure / vacuum / controlled atmosphere |
| Furnace Door Opening Method | Sealed or open (optional) |
| Sealing | Stainless steel vacuum flange with valve and mechanical pressure |
| Power Supply | Configurable according to local electrical standards |
| Optional Accessories | Flow meter, vacuum system, door-opening power-off, touch screen, remote control, computer display |
Values measured by Xnergy. Typical values for reference; not guaranteed unless otherwise specified. Other specifications can be customized according to customer needs.
Customization Options:
The XN-T1200 platform supports broad customization to match specific research requirements:
- Tube diameter — Φ40, Φ50, Φ60, Φ80, Φ100, Φ120 mm
- Heating zone length — 200 mm, 300 mm, 440 mm, or other custom lengths
- Tube material — quartz, high-purity alumina, heat-resistant alloy (subject to working temperature limits)
- Number of heating zones — single zone or multi-zone configurations
- Optional accessories — flow meter, vacuum system, door-opening power-off, touch screen, remote control, computer display
Contact our team for the customization configuration matched to your specific application requirements.
Application Areas:
- Material synthesis — nanomaterials, superconducting materials, ceramics, composite materials
- Sintering experiments — ceramic and composite material sintering at temperatures up to 1100 °C
- Metal heat treatment — annealing and quenching of metals and alloys
- Battery material research — cathode material synthesis and sintering
- Laboratory and pilot-scale heat-treatment research requiring atmosphere or vacuum capability
- Universities, research institutes, and industrial R&D facilities
Recommended Operating Procedure:
1. Verify all electrical, gas, and vacuum connections (if applicable) are properly installed before powering on the XN-T1200. 2. Power on the furnace and the 30-step programmable PID controller; verify that the temperature monitoring meter, over-temperature protection, and (if equipped) vacuum system, flow meter, and other optional accessories are operating normally. 3. Place the sample in a suitable crucible or sample holder, then insert into the quartz tube within the heating zone. 4. Close and seal the stainless steel vacuum flange. If operating under vacuum or controlled atmosphere, evacuate the tube and/or introduce the working gas through the flow meter as required. 5. On the PID controller, program the target temperature profile (up to 30 steps), including heating rate (suggested 0–10 °C/min), hold temperatures (up to 1100 °C working / 1200 °C maximum), hold times, and cooling rate. 6. Initiate the program; the PID controller manages the temperature profile with ±1 °C accuracy. 7. Monitor the furnace temperature and process via the temperature monitoring meter (and optional computer display, touch screen, or remote control). 8. After the program completes, allow the furnace to cool to a safe temperature before opening the furnace door and removing the sample. Take care: the quartz tube and sample remain hot for an extended period. 9. After the run, clean the furnace chamber and quartz tube as appropriate; replace tube or heating elements per maintenance schedule.
Packaging & Storage:
The XN-T1200 ships fully assembled with the quartz tube (customizable diameter and heating zone length), high-purity alumina ceramic fiber chamber, 0Cr27Al7Mo2 resistance heating wire, 30-step programmable PID controller, temperature monitoring meter, over-temperature and burnout protection system, carbon steel double-layer shell with air-cooling system, stainless steel vacuum flange with valve, and any selected optional accessories (flow meter, vacuum system, touch screen, etc.). Install on a stable laboratory floor or workstation in a clean, dry environment, away from corrosive atmospheres, with adequate clearance around the furnace for the air-cooling system and operator access. Disconnect the power supply when the equipment is not in active use. Inspect the heating element, quartz tube, sealing flange, and PID controller periodically for wear, contamination, or signs of degradation.
Safety:
For research and industrial laboratory use only. Do not exceed the top temperature (1200 °C) or sustain operation above the working temperature (1100 °C) for extended periods — exceeding these limits may damage the heating element, quartz tube, and furnace chamber. The over-temperature and burnout protection system provides additional safety margin but does not override the rated limits. Always wear appropriate PPE (safety glasses, high-temperature gloves, lab coat) when loading or unloading samples, especially while the furnace is still hot. Allow the furnace to cool to a safe handling temperature before opening the furnace door. When operating with controlled atmosphere or vacuum, follow standard laboratory protocols for inert gas handling and vacuum-system operation. When processing samples that may release toxic, corrosive, or reactive byproducts, exhaust the furnace tube outlet to a fume hood or scrubber. Refer to the included user manual for complete safety and operating instructions.
Note: Specifications listed above are typical and for reference only. Actual performance depends on the specific sample material, atmosphere, heating profile, and ambient operating conditions — consult published literature and our technical team for guidance on specific tube furnace heat-treatment protocols. The XN-T1200 platform supports broad customization (tube diameter, heating zone length, tube material, number of heating zones, optional accessories) to match specific research requirements. For researchers exploring related laboratory heat-treatment equipment, see also Xnergy’s related products in the Sintering Furnaces category, Drying equipment category, and Coating equipment category. For complete electrode formulation systems, see also Cathode Materials, Anode Materials, Binders, and Current Collectors.




