1200C High Throughput Multi Channel Tube Furnace with 50mm Quartz Tubes for Annealing and Material Phase Diagram Research

Product Overview

This high-throughput thermal processing system represents a significant advancement in material science research, specifically engineered for the simultaneous heat treatment of multiple samples. By integrating six independent furnace modules into a single compact footprint, the equipment allows researchers to execute parallel experiments, drastically reducing the time required for alloy development and ceramic characterization. The system is designed to provide a versatile platform where multiple thermal gradients or identical processing conditions can be maintained across different batches, making it an indispensable tool for laboratories focused on high-efficiency productivity.

Targeting industries such as metallurgy, semiconductor manufacturing, and advanced ceramics, this unit facilitates complex phase diagram studies and the synthesis of next-generation materials. Whether used for annealing, sintering, or atmosphere-controlled synthesis, the equipment ensures that each of the six processing channels operates with the highest degree of thermal stability. The integration of high-purity quartz vessels and precision vacuum flanges allows for experiments to be conducted under high vacuum or specific atmospheric conditions, catering to the stringent requirements of modern industrial R&D.

Built for demanding laboratory environments, the system prioritizes reliability and performance consistency. Each heating module is constructed with robust materials and advanced insulation to minimize thermal interference between channels, ensuring that one experiment's parameters do not compromise the results of another. With a maximum operating temperature of 1200°C and sophisticated digital control interfaces, this system provides the confidence needed for long-duration thermal cycles and repetitive testing protocols required in professional research settings.

Key Features

• Hex-Channel Independent Architecture: The system consists of six distinct furnace modules, each capable of being programmed with unique thermal profiles. This allows for the simultaneous testing of different variables, such as varying temperatures or soak times, within a single localized workstation, maximizing laboratory throughput without requiring multiple separate furnaces.
• High-Purity Quartz Thermal Chambers: Each channel is equipped with a premium 50mm O.D. quartz tube, selected for its exceptional chemical stability and thermal shock resistance. These tubes act as isolated reaction vessels, preventing cross-contamination and providing a clean environment essential for delicate material synthesis and high-purity annealing processes.
• Precision PID Temperature Control: Every individual module is governed by a 24-segment digital programmable controller, offering a high temperature accuracy of ±1.0 ±C. This granularity of control enables the creation of complex heating and cooling ramps, which is critical for the development of sensitive alloys and phase-shifting ceramic materials.
• Unified Atmosphere and Vacuum Management: The equipment features a centralized vacuum architecture where a single vacuum pump can service all six channels via KF25 ports. Equipped with high-precision mechanical vacuum gauges and needle valves, the system allows for fine-tuning of gas flow rates and pressure levels, reaching vacuums as low as 10^-5 torr when paired with a turbopump.
• Advanced Ni-Cr-Al Heating Elements: Utilizing specialized Ni-Cr-Al resistance wires, the furnace achieves rapid heating rates of up to 20°C per minute. These elements are designed for long-term durability at high temperatures, ensuring consistent radiant heat transfer and minimizing maintenance downtime during heavy-use cycles.
• Integrated Digital Communication and PC Control: The inclusion of an RS485 communication port and dedicated PC software allows for the centralized monitoring and recording of all six channels from a single laptop. This capability is vital for traceability, data logging, and the remote management of complex thermal recipes in industrial R&D environments.
• Rapid Seal Flange Technology: Each quartz tube is secured with quick-clamped KF25 flanges, facilitating fast sample loading and unloading. This feature minimizes the time between experimental runs and ensures a reliable, airtight seal for experiments requiring protective atmospheres such as nitrogen, argon, or hydrogen.
• Integrated Safety Alert Systems: To protect both the equipment and the academic or industrial operator, each controller includes built-in alarms for over-temperature conditions and thermocouple failure. This proactive monitoring ensures the integrity of the samples and the safety of the laboratory facility during unattended operation.

Applications

Technical Specifications

Why Choose Us

• Unmatched Research Velocity: By facilitating six simultaneous experiments, this system allows laboratories to complete research projects in a fraction of the time required by traditional single-zone furnaces, providing a significant competitive advantage in time-to-market for new materials.
• Precision Engineering and Stability: The combination of high-grade quartz, S-type thermocouples, and independent PID controls ensures that each channel delivers professional-grade repeatability, which is essential for peer-reviewed research and industrial quality control.
• Robust Multi-Channel Reliability: Unlike makeshift setups, the integrated architecture of this unit provides a stable, electrically safe, and certified environment for high-temperature operations, backed by premium heating elements designed for thousands of hours of service.
• Customizable Atmosphere Control: The flexibility to work under high vacuum or flowing inert gases allows researchers to tailor the environment to the specific chemistry of their samples, preventing oxidation and ensuring the purity of high-value experimental results.
• Scalable and Integration-Ready: With PC-based control and the ability to be modified for CVD applications, this investment grows with your lab's needs, transitioning seamlessly from basic annealing to advanced material synthesis.

Our engineering team is ready to assist you in configuring the ideal thermal solution for your high-throughput research requirements. Contact us today for a technical consultation or a formal quotation tailored to your laboratory's specifications.