RTP Furnace
Rapid Thermal Processing Sliding Tube Furnace with 4 Inch OD Quartz Tube and 900C IR Heating
Item Number: TU-RT01
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Product Overview

This high-performance rapid thermal processing (RTP) system is engineered to meet the rigorous demands of modern material science research and industrial R&D. By integrating high-intensity infrared (IR) halogen heating elements with a precision-controlled sliding mechanism, this equipment facilitates ultra-fast thermal cycling that is essential for advanced synthesis techniques. The core value proposition of this unit lies in its ability to achieve extreme heating rates up to 50°C/s while maintaining the thermal stability required for delicate thin-film growth and annealing processes.
Primarily designed for the growth of graphene, carbon nanotubes (CNTs), and perovskite solar cells, this system excels in Chemical Vapor Deposition (CVD) and Rapid Thermal Annealing (RTA) applications. Its versatility makes it a cornerstone for laboratories specializing in semiconductors, nanotechnology, and renewable energy materials. The equipment provides a controlled environment where atmospheric purity and thermal gradients are managed with surgical precision, allowing researchers to transition from heating to cooling phases without compromising the structural integrity of the substrate.
Reliability is at the forefront of this system's design. Featuring a dual-layer steel casing with integrated air cooling, the unit is built to withstand prolonged high-temperature operations while keeping the external surface safe for operators. Every component, from the high-purity fused quartz tube to the stainless steel vacuum flanges, is selected for its durability and performance under vacuum and low-pressure conditions. This ensures consistent, repeatable results across hundreds of cycles, making it a dependable investment for high-output research environments.
Key Features
- Rapid Infrared Halogen Heating: Utilizing eight 1kW halogen light tubes, this system achieves industry-leading heating rates of up to 50°C/s. This allows for near-instantaneous temperature jumps, which are critical for minimizing dopant diffusion and achieving specific crystalline phases in thin films.
- Automated Sliding Cooling Mechanism: The furnace is mounted on a motorized dual-rail sliding system. Upon completion of the heating program, the unit automatically moves away from the sample area while integrated fans provide active air cooling, enabling cooling rates exceeding 10°C/s for rapid quenching.
- Advanced PID Thermal Regulation: The equipment features a sophisticated PID automatic controller with 30 programmable segments. This allows users to define complex thermal profiles, including specific ramp rates, dwell times, and cooling sequences, all with a temperature accuracy of ±1°C.
- High-Purity Quartz Process Environment: The 4-inch OD process tube is crafted from high-purity fused quartz, ensuring zero contamination of samples. This large-diameter tube is capable of annealing wafers up to 3 inches in diameter, providing ample space for high-throughput batch processing.
- Comprehensive Vacuum Integration: Equipped with stainless steel vacuum flanges and a digital vacuum gauge, the system is ready for immediate high-vacuum or controlled atmosphere use. The hinge-type right flange simplifies sample loading and unloading, significantly reducing downtime between experimental runs.
- Dual-Zone Monitoring System: Two K-type thermocouples are utilized; one manages the furnace's internal heating elements while the other is placed directly within the sample zone. This dual-feedback loop ensures that the temperature reported is the actual temperature experienced by the material.
- Enhanced Safety Protocols: The system includes built-in protection against overheating and thermocouple breakage. These hardware-level safety features allow for unattended operation, providing peace of mind during long annealing cycles or complex CVD processes.
- Robust Mechanical Infrastructure: The sliding table is driven by a high-torque DC motor and supported by chrome-plated steel rails. This heavy-duty construction ensures smooth, vibration-free movement, which is essential for maintaining the alignment of delicate samples during rapid transitions.
Applications
| Application | Description | Key Benefit |
|---|---|---|
| Graphene Synthesis | Large-area graphene growth via CVD on copper or nickel foils. | Rapid heating and cooling optimize grain size and layer uniformity. |
| Carbon Nanotube Growth | Controlled deposition of single-walled or multi-walled CNTs. | Precise temperature control ensures consistent catalyst activation and growth rates. |
| Perovskite Solar Cells | Rapid thermal annealing of perovskite thin films to improve crystallinity. | High heating rates minimize lead evaporation and enhance film morphology. |
| Semiconductor Annealing | Rapid thermal processing (RTP) of silicon or compound semiconductor wafers. | Minimizes thermal budget and prevents unwanted dopant redistribution. |
| Thin Film Deposition | Development of high-k dielectrics and metallic thin films for electronics. | Controlled atmospheric conditions prevent oxidation and ensure film purity. |
| 2D Material Research | Exploration of MoS2 and other transition metal dichalcogenides. | High-speed thermal cycling allows for rapid screening of growth parameters. |
| Material Phase Studies | Investigation of temperature-dependent phase transitions in alloys. | Ability to quench samples rapidly preserves high-temperature phases for analysis. |
Technical Specifications
| Category | Parameter | Specification (TU-RT01) |
|---|---|---|
| Thermal Performance | Max. Heating Temp | 900°C (< 1 hour); 800°C (< 120 mins); 600°C (Continuous) |
| Max. Heating Rate | 50 °C/s | |
| Max. Cooling Rate | 8 °C/s (from 1000°C to 600°C via sliding mechanism) | |
| Temperature Accuracy | ± 1 °C | |
| Heating System | Heating Elements | 8 pcs 1kW Halogen light tubes (200mm heating length) |
| Element Service Life | Standard 2000 hours (usage dependent) | |
| Thermocouples | Dual K-type (Control and Sample Monitoring) | |
| Process Tube | Material | High purity fused quartz |
| Dimensions | 100 mm O.D x 94 mm I.D x 1400 mm L | |
| Max. Wafer Size | Up to 3" diameter | |
| Mechanical System | Sliding Rail Type | Dual Cr-plated steel rails (1200 mm length) |
| Sliding Drive | DC Motor with adjustable speed (0-70 mm/s) | |
| Sliding Range | 340 mm | |
| Control & Software | Controller Type | PID with 30 programmable segments |
| Communication | RS485 Port; MTS-02 module for PC control included | |
| Safety Features | Overheat & Thermocouple broken protection | |
| Vacuum & Gas | Vacuum Level | 10^-2 Torr (Mechanical Pump); 10^-4 Torr (Molecular Pump) |
| Flange Type | Stainless steel; Right side hinge-type for easy loading | |
| Flow Meter | Integrated 16-160 ml/min range | |
| Physical & Power | Input Power | AC 208-240V Single Phase, 50/60 Hz; 9KW Max |
| Casing | Double-layer steel with air cooling | |
| Compliance | CE Certified; NRTL (UL61010) or CSA available on request |
Why Choose TU-RT01
- Superior Thermal Agility: Unlike traditional resistive furnaces, this IR-driven system offers the speed required for modern nanostructure synthesis, cutting processing times from hours to minutes and enabling unique material properties.
- Precision Engineering and Build Quality: From the motorized sliding table to the dual-layer cooled casing, every aspect of this unit is designed for industrial-grade reliability and operator safety in demanding laboratory environments.
- Comprehensive Process Control: With integrated PC communication and sample-level temperature monitoring, researchers can achieve a level of data logging and process repeatability that is unattainable with standard tube furnaces.
- Turnkey Vacuum Solution: The inclusion of high-quality stainless steel flanges, digital gauges, and precision needle valves means the system is ready for high-vacuum applications immediately upon installation.
- Proven Material Science Heritage: This furnace architecture is a documented tool in the growth of cutting-edge materials like perovskites and graphene, backed by a global track record of performance in top-tier research institutions.
Our technical team is ready to assist you in configuring this rapid thermal processing system to meet your specific research requirements. Contact us today for a detailed technical consultation or a formal quotation.
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