Film Carbonization Furnace for High Thermal Conductivity Materials (PI Film)

● Max. Temperature: 1600°C

● Atmosphere: Vacuum /Ar,N2 etc.,Inert atmosphere

● Heating Method:Resistance Heating,Molybdenum/tungsten heater

●  The High-Temperature Film Carbonization Furnace for High Thermal Conductivity Materials (PI Film) is an advanced system designed to convert organic materials into carbon-rich products through a process known as pyrolysis. This furnace operates at elevated temperatures, typically exceeding 1000°C, allowing for the efficient breakdown of materials in an oxygen-free environment. It utilizes specialized membranes to control the gas flow and temperature, ensuring consistent quality and maximizing the yield of carbon products. The end result is a high-purity carbon material, ideal for various industrial applications.


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**Product Description:**

Our *High-Temperature Film Carbonization Furnace*, is specifically designed for the vacuum carbonization treatment of high thermal conductivity materials, particularly PI films. This advanced furnace stands out in the industry due to its exceptional features and innovative technology.

**Key Features:**

  • – **High-Temperature Capability:** Withstanding temperatures up to 1600℃, our furnace is perfectly suited for the carbonization process of PI films, ensuring optimal results.
  • – **Precision Temperature Control:** Equipped with high-precision thermocouples for zoned temperature measurement and control, this furnace guarantees accurate temperature readings and uniform heating throughout the chamber.
  • – **Intelligent Digital Control System:** The furnace utilizes a sophisticated digital temperature control system that automatically manages the heating process. It allows for the programming of a designated heating curve with the ability to store up to four different heating profiles, comprising a total of 40 segments.
  • – **Data Recording Functionality:** Our furnace features a data measurement and recording capability that logs temperature parameters. Users can easily query and export this data to a USB drive for further analysis.
  • – **Reliable Safety Features:** Utilizing a high-quality power controller from Taiwan, the furnace is designed with comprehensive protections against overloading, short circuits, false triggering, and over-voltage incidents.
  • – **User-Friendly Interface:** With a multi-channel data acquisition system and an intuitive human-machine interface, users can monitor and control the operating parameters with ease and clarity.
  • – **Double-Layer Water-Cooled Design:** The furnace is equipped with a unique double-layer water-cooled structure, facilitating negative pressure vacuum operation. This includes a vacuum pipeline interface complete with a vacuum break valve and gas inlet for enhanced functionality.
  • – **Excellent Temperature Uniformity:** Our square cage graphite rod heating arrangement ensures exceptional temperature uniformity, critical for effective carbonization.
  • – **Convenient Operation:** The horizontal design features dual doors at the front and back, allowing for easy loading and unloading, making the operation straightforward and efficient.
  • – **Advanced Tar Filtration System:** The cutting-edge tar filtration device maximizes the extraction of volatile components from the chamber, ensuring superior product quality and increased sintering output.

**Technical Parameter:**

Work Size (mm) 400X400X1200 500X500X1600 550X550X1600 600X600X1600
Volume (L) 192 400 484 576
Work Temperature(℃) 1500 1500 1500 1500
Ultra Temperature(℃) 1600 1600 1600 1600
Power(KW) 90 120 130 150
Heating Method Resistance Heating
Vacuum System Slide valve vacuum pump or screw pump or oil ring pump unit
Atmosphere Vacuum
Ultra Vacuum (Pa) 40(Cooling Vacuum)

### Q&A for High-Temperature Film Carbonization Furnace

In summary, the *High-Temperature Film Carbonization Furnace* combines high performance with advanced controls and user-friendly design, making it an ideal choice for professionals in need of reliable vacuum carbonization solutions for high thermal conductivity materials like PI films. Experience unrivaled precision and efficiency in your carbonization processes with our state-of-the-art furnace.

  • **Q1: What is the maximum temperature that the high-temperature carbonization furnace can reach?**
  • **A1:** The high-temperature carbonization furnace can reach temperatures up to 1600°C, making it ideal for the complete carbonization processing of PI films.
  • **Q2: How does the temperature control system work in this furnace?**
  • **A2:** Our furnace features a high-precision thermocouple zoning temperature measurement system that ensures accurate temperature readings and uniform heating throughout the furnace. It employs a digital intelligent temperature control system, which automatically completes the temperature measuring and controlling process with the capability to follow a predefined heating curve.
  • **Q3: Can I store different heating profiles in the furnace?**
  • **A3:** Yes, the furnace can store up to four different heating profiles, with each profile consisting of up to 40 segments. This allows for flexibility in varying your heating processes according to specific requirements.
  • **Q4: Is it possible to record temperature parameters and transfer data from the furnace?**
  • **A4:** Absolutely! The furnace is equipped with a data recording feature that enables it to log temperature parameters. This data can be easily queried and transferred to a portable USB drive for further analysis.
  • **Q5: How is the user interface and operation of the furnace designed?**
  • **A5:** The furnace incorporates a multi-channel data acquisition system with an intuitive human-machine interface, making it easy to monitor and operate. The operational parameters of the entire system are clearly displayed for effortless control.
  • **Q6: What are the features of the furnace’s body and structure?**
  • **A6:** The furnace features a double-layer water cooling structure and is capable of achieving negative pressure vacuum conditions. Additionally, it includes a vacuum pipeline interface, a vacuum breaking valve, and a gas injection port for enhanced functionality.
  • **Q7: How does the heating mechanism ensure temperature uniformity?**
  • **A7:** The furnace utilizes a square cage graphite rod combination heating method, which ensures excellent temperature uniformity across the working area. This design promotes consistent processing results for your materials.
  • **Q8: Is it easy to load and unload materials in this furnace?**
  • **A8:** Yes, loading and unloading are made convenient with the horizontal design of the furnace that features dual doors at both ends. This simplicity in design ensures efficient operations and minimal downtime during processing.

Whether you are in research, analysis, or manufacturing, the High-Temperature Film Carbonization Furnace for High Thermal Conductivity Materials (PI Film) supplied from SINOWIN INDUSTRY is your best choice.Donot hesitate to Contact us today for a quote and transform your scientific journey completely.

###More Q&A for High-Temperature Film Carbonization Furnace

**Q1: What is a high-temperature membrane carbonization furnace and how does it work?**

**A1:** A high-temperature membrane carbonization furnace is an advanced system designed to convert organic materials into carbon-rich products through a process known as pyrolysis. This furnace operates at elevated temperatures, typically exceeding 1000°C, allowing for the efficient breakdown of materials in an oxygen-free environment. It utilizes specialized membranes to control the gas flow and temperature, ensuring consistent quality and maximizing the yield of carbon products. The end result is a high-purity carbon material, ideal for various industrial applications.

**Q2: What are the benefits of using a high-temperature carbonization furnace in manufacturing?**

**A2:** The use of a high-temperature carbonization furnace in manufacturing offers several significant advantages. Firstly, it enhances material purity and consistency, which are crucial for high-performance applications. Secondly, the process reduces waste by converting more organic materials into usable carbon products, thus promoting sustainability. Additionally, this technology can improve the mechanical and chemical properties of the final materials, leading to better performance in their respective applications. Ultimately, incorporating a high-temperature carbonization furnace can lead to cost savings and increased operational efficiency.

**Q3: How can I choose the right membrane carbonization furnace for my business?**

**A3:** Selecting the right membrane carbonization furnace for your business involves several critical factors. Begin by assessing your specific production needs—considering the types of materials you plan to process and the desired output quality. Evaluate the furnace’s temperature range, scalability, energy efficiency, and technology features. It’s also essential to research the manufacturer’s reputation and after-sales support. Consulting with industry experts can provide valuable insights tailored to your specific requirements, ensuring you invest in a furnace that aligns with your business goals.

**Q4: Which industries benefit most from high-temperature membrane carbonization technology?**

**A4:** High-temperature membrane carbonization technology is particularly beneficial to various industries, including but not limited to: aerospace, automotive, electronics, and materials science. In aerospace, for instance, high-strength carbon materials are crucial for lightweight components, while the automotive industry seeks to enhance fuel efficiency through advanced materials. Moreover, the electronics sector utilizes carbon-based materials for semiconductors. Essentially, any industry that relies on high-performance materials can reap significant benefits from this innovative carbonization technology.

**Q5: What key features should I focus on when choosing a high-temperature carbonization furnace?**

**A5:** When selecting a high-temperature carbonization furnace, focus on several key features. These include: temperature control accuracy, energy efficiency, production capacity, and thermal uniformity. Additionally, consider the safety features integrated into the furnace, such as emergency shut-off systems, temperature alarms, and monitoring capabilities. Membrane technology quality and the ease of maintenance are also critical aspects. Lastly, investigate optional features such as automatic loading/unloading systems that can enhance operational efficiency.

**Q6: How does high-temperature carbonization improve material performance?**

**A6:** High-temperature carbonization enhances material performance by transforming organic materials into high-purity carbon structures, which exhibit improved mechanical strength, thermal stability, and conductivity. The carbonization process aligns the material’s molecular structure, resulting in enhanced durability and resistance to wear. Furthermore, carbonized materials often exhibit superior chemical resistance, making them ideal for demanding applications. This improvement in properties enables manufacturers to create innovative products that meet or exceed industry standards.

**Q7: What safety precautions should be considered when operating a carbonization furnace?**

**A7:** Safety is paramount when operating a carbonization furnace. Essential precautions include ensuring proper ventilation to handle gases generated during the process, as well as maintaining a well-defined emergency protocol. Operators should be equipped with protective gear, including heat-resistant clothing and face shields, and must receive comprehensive training on furnace operation. Regular maintenance checks are crucial to ensure equipment functionality and safety. Additionally, implementing responsive fire suppression systems and gas detection systems can significantly mitigate risks associated with high-temperature carbonization.

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