N,N'-M-Phenylene Dimaleimide (PDM) manufactured by Yangchen Tech is widely used in electrical insulation materials. Its excellent chemical and physical properties make it ideal for electrical insulation applications.   First, PDM has excellent insulation properties. It can effectively prevent current leakage and arc formation, ensuring the safe operation of electrical equipment. Secondly, PDM also has good heat resistance and chemical resistance, which allows it to maintain stable insulation performance under high temperatures and harsh environments. In addition, PDM also has good mechanical properties, such as high strength, high modulus and fatigue resistance, which enables it to meet the mechanical strength requirements of electrical insulating materials.     Therefore, N,N'-M-Phenylene Dimaleimide is widely used in the insulation layer of electrical equipment such as cables, wires, motors, and transformers in terms of electrical insulation materials. It not only provides excellent insulation properties, but also improves the heat resistance and corrosion resistance of electrical equipment, thereby extending the service life of the equipment. At the same time, PDM also has good processing properties and can be easily blended or copolymerized with other materials to prepare composite insulation materials with excellent properties. This complex and multifunctional substance is expected to revolutionize the industry with its exceptional properties and wide range of functions.   Appearance Yellow powder Melting point ≥196℃ Moisture content ≤0.5% Ash content ≤0.5%     The seamless integration of N,N'-M-phenylenebismaleimide in electrical insulation materials takes their performance and reliability to new heights. Its unique chemical structure not only enhances the material's electrical strength but also enhances its thermal stability. One of the outstanding features of N,N'-M-phenylenebismaleimide is its excellent dielectric strength. This property allows electrical insulation materials to easily withstand high voltages, protecting critical components from potential failures and ensuring uninterrupted flow of power. With such strong insulating capabilities, this remarkable compound paves the way for the next generation of safer, more efficient electrical systems.   In addition, the excellent thermal stability of N,N'-M-phenylenebismaleimide sets it apart from traditional materials. These advanced insulation materials maintain their integrity when exposed to extreme temperatures and protect sensitive electrical components from thermal damage. This valuable attribute not only extends the life of your electrical system but also helps improve operating efficiency.   In addition to its fundamental properties, N,N'-M-phenylenebismaleimide exhibits excellent affinity for efficient processing and compatibility with a variety of materials. This adaptability allows seamless integration into a variety of applications, from power generation and transmission to the automotive and aerospace industries. Electrical insulation materials reinforced with this compound therefore embody versatility and adaptability, ensuring optimal performance in a variety of environments.   If you have any questions,pls feel free to contact: business@xysjgm.com

N,N '-m-phenylene bismaleimide HA-8 Ⅰ. Introduction Product name: N,N '-m-phenylene bismaleimide Abbreviation: HA-8/PDM/HVA-2 Molecular formula: C14H8N2O4           Molecular weight: 268 Physicochemical properties: Yellow or brown-yellow powder, specific gravity 1.44, soluble in dioxycontinental ring, tetrahydrofuran and hot acetone, insoluble in petroleum bond, methylene chloride, carbon tetrachloride, benzene and water. CAS NO: 3006-93-7 Appearance: Structure type:     Ⅱ.Technical indicators Items Refers to the standard Appearance Yellow powder Melting point, ℃ 195℃or higher Burning residue, % 0.5% or less Heat reduction, % 0.5% or less Acid value, % 0.9% or less Sieve residue, 325 mesh 0.5% or less   Ⅲ. Use N,N '-m-phenylene bismaleimide manufactured by Yangchen Tech (also known as PDM or HVA-2) is a multifunctional rubber additive used as a vulcanizing agent in rubber processing, as a secondary vulcanizing agent in peroxide systems, and as an anti-curl agent and casting agent. It can be used in general rubber as well as specialty rubber and plastic systems. In natural rubber adhesive, combining with sulfur can prevent the return of moisture from vulcanization, improve heat resistance, reduce heat generation, aging resistance, improve the adhesion between rubber and cord and the modulus of vulcanized rubber. Used in shoulder rubber, cushion layer and other rubber materials, it can solve the shoulder hollow problem of bias truck tires, also can be used in large-size thick products of natural rubber and various rubber miscellaneous products. As an auxiliary vulcanizing agent in special rubbers such as chloroprene rubber, chlorosulphonated polyethylene rubber, styrene butadiene rubber, nitrile rubber, isoprene rubber, butyl rubber, bromobutyl rubber, acrylate rubber, silicone rubber and elastomer rubber, it can significantly improve cross-linking performance, improve heat resistance, suitable for high temperature vulcanization system, and reduce the compression permanent deformation is very obvious. It also reduces the amount of peroxide, prevents the rubber from burning during processing, and improves the adhesive strength between the rubber and the cord and metal. PDM is a sulfur-free vulcanizing agent, used for cable rubber, it can replace thiazoles, thiuram class and other sulfur-containing vulcanizing agents, to solve the copper wire and copper electrical appliances due to contact with sulfur-containing vulcanizing agent copper sulfide pollution black problem.        PDM is a sulfur-free vulcanizing agent for cable rubber, which can replace sulfur-containing vulcanizing agents such as thiazole and thiuram to solve the problem of blackening of copper wire and copper electrical appliance due to sulfur-containing agents and copper sulfide contamination.   If you have any questions,pls feel free to contact: business@xysjgm.com      

As an important part of a car, tires play a vital role in driving safety and ride comfort. In order to improve the performance and life of tires, rubber additives play an important role in tire manufacturing. Among them, N,N'-m-phenylene dimaleimide, as a common rubber vulcanization cross-linking agent, is widely used in tire manufacturing. I will introduce the application of N,N'-m-phenylene dimaleimide in tires, hoping to help you.   1. What is N,N'-m-phenyldismaleimide? N,N'-m-phenyldismaleimide manufactured by Yangchen Tech is a compound with a bismaleimide structure and has good thermal stability and aging resistance. It can react with reactive groups in rubber to form a vulcanized cross-linked network, thereby enhancing the mechanical properties and wear resistance of rubber.   2. How does N,N'-m-phenylene dimaleimide improve tire performance?   (1) Improve tire wear resistance: N,N'-m-phenylene dimaleimide can react with sulfur reactive groups in rubber to form a cross-linked structure. This cross-linked structure can improve the hardness and wear resistance of the tire and extend the service life of the tire. During high-speed driving and complex road conditions, the tire surface is subject to greater friction and wear. The application of N,N'-m-phenylene dimaleimide can effectively reduce tire wear and improve its durability.   (2) Improve the thermal stability of tires: N,N'-m-phenyldismaleimide has good thermal stability and can resist oxidation and aging in high temperature environments. When driving at high speed for a long time or under severe weather conditions, tires will be affected by high temperatures and prone to aging and deterioration. By adding N,N'-m-phenyldismaleimide, the thermal stability of the tire can be enhanced, the occurrence of aging and deterioration can be reduced, and the safety and reliability of the tire can be improved.   (3) Improve tire oil resistance: After N,N'-m-phenyldismaleimide reacts with reactive groups in rubber, it can form a cross-linked structure, thereby enhancing the oil resistance of tires. On the road, tires can be exposed to a variety of chemicals, including oils and solvents. By using rubber formulations containing N,N'-m-phenyldismaleimide, the tire's resistance to oils and solvents can be improved and the resulting losses and degradation can be reduced.   N,N'-m-phenyldismaleimide is a rubber vulcanization cross-linking agent widely used in tire manufacturing. It can improve the wear resistance, thermal stability and oil resistance of tires, extend the service life of tires, and improve tire safety and reliability. With the continuous advancement of science and technology, we can look forward to the further application and development of N,N'-m-phenylene dimaleimide in tire manufacturing, bringing more innovations and breakthroughs to the automotive industry.   If you have any questions,pls feel free to contact: business@xysjgm.com    

N,N'-m-phenylene dimaleimide (HA-8/HVA-2/PDM for short) produced by Yangchen Tech plays an important role in the manufacturing of special rubber tires and brings many excellent properties to the tires.     Technical indicators: Items Refers to the standard Appearance Yellow powder Melting point, ℃ 195℃or higher Burning residue, % 0.5% or less Heat reduction, % 0.5% or less Acid value, % 0.9% or less Sieve residue, 325 mesh 0.5% or less   1.Excellent strength and durability As a high-performance cross-linking agent, HA-8 can significantly enhance the bonding force between rubber molecules. In the manufacturing process of special tires, its addition gives the tires higher tensile strength and tear resistance. This means that the tires can maintain better stability and extend their service life when under heavy pressure and driving at high speeds.   2. Excellent anti-aging properties Special tires need to face various harsh environments, such as high temperature, ultraviolet rays, chemical corrosion, etc. HA-8 has excellent antioxidant and anti-aging properties and can effectively resist the damage to tires caused by these environmental factors. This not only maintains the beautiful appearance of the tire, but more importantly maintains its stable performance and extends its service life.     3. Excellent anti-slip performance On slippery roads, tire grip and handling are crucial. The addition of HA-8 can optimize the molecular structure of the rubber and improve the friction between the tire and the wet road surface, thereby enhancing the tire's anti-wet skid performance. This allows drivers to maintain a more stable and safer driving experience when driving on rainy days or wet roads.   4. Reduce rolling resistance and improve fuel economy The application of HA-8 can also reduce the rolling resistance of special tires and reduce the energy loss of the vehicle during driving. This can not only improve fuel economy and reduce operating costs, but also comply with current social requirements for energy conservation, emission reduction, and green travel.   5. Wide range of applications Due to the excellent performance brought by HA-8, the special rubber tires produced by Yangchen Tech can adapt to various road conditions and usage scenarios. Whether they are passenger cars, commercial vehicles or industrial vehicles, or even special vehicles such as military vehicles, racing cars, etc., they can all benefit from it.   6. Reliable quality assurance As a professional manufacturer of fine chemical products, Yangchen Tech always adheres to a strict quality management system. From the procurement of raw materials to the control of the production process to the inspection of the final product, everything is carefully planned and strictly controlled. This makes HA-8 products extremely reliable and stable, providing a solid guarantee for the performance of special tires.   High quality and high stability are the core requirements of special tires, and N,N'-m-phenylene dimaleimide produced by Yangchen Tech is the ideal choice to achieve this requirement. Its addition not only improves the strength, durability, anti-aging performance, and anti-wet skid performance of the tire, but also reduces rolling resistance and broadens the scope of application. Yangchen Tech will continue to provide more high-quality, high-performance rubber additive products to consumers around the world.   If you have any questions,pls feel free to contact: business@xysjgm.com

N-phenylmaleimide (NPMI) modified ABS refers to a type of ABS resin that is chemically modified by incorporating N-phenylmaleimide monomer into the polymer matrix. This modification is intended to enhance the performance of traditional ABS resins to meet specific performance requirements in various applications.     Here are some key points about NPMI modified ABS:   1. Enhance heat resistance: The addition of N-phenylmaleimide monomer helps to improve the heat resistance of ABS resin. NPMI forms cross-links within the polymer matrix during the polymerization process, thereby increasing the thermal stability of the material. This modification allows NPMI-modified ABS to withstand higher temperatures without deformation or degradation.   2. Improved mechanical properties: NPMI-modified ABS generally exhibits enhanced mechanical properties compared to traditional ABS resin. The addition of NPMI increases tensile strength, impact resistance and dimensional stability, making the material suitable for applications requiring high performance.   3. Chemical resistance: Depending on the specific formulation, NPMI-modified ABS can improve resistance to certain chemicals compared to standard ABS resin. This property is advantageous in applications where exposure to harsh chemicals is a concern, such as automotive parts or industrial equipment.   Applications NPMI modified ABS is used in a variety of industries and applications where thermal resistance, mechanical strength and chemical resistance are critical. Common applications include automotive interior components, electrical enclosures, consumer electronics and appliances.   N-phenylmaleimide-modified ABS is a specialized form of ABS resin that provides enhanced performance based on specific application requirements. By incorporating NPMI monomers into the polymer matrix, manufacturers can produce ABS materials with superior thermal resistance, mechanical strength and chemical resistance, making them suitable for a variety of demanding applications.   If you have any questions,pls feel free to contact: business@xysjgm.com  

N,N'-m-phenylene dimaleimide manufactured by Yanchen Tech (also known as M-PDM or MPDM) is a rubber additive that can be used as a curing agent or cross-linking agent in rubber compounds. It is typically employed in applications where high-temperature resistance and improved mechanical properties are required. While M-PDM can be used with various types of rubber, it is commonly used with the following tire rubbers: 1.Styrene Butadiene Rubber (SBR): SBR is a synthetic rubber commonly used in the production of tires due to its excellent abrasion resistance and low rolling resistance. M-PDM can be used as a curing agent in SBR formulations to enhance the heat resistance, tensile strength, and overall durability of the tire rubber. 2.Butadiene Rubber (BR): BR is another type of synthetic rubber that offers excellent resilience, tear strength, and abrasion resistance. M-PDM can be utilized as a curing agent for BR to improve its heat resistance and mechanical properties in tire applications.    3.Nitrile Rubber (NBR): NBR is a type of synthetic rubber known for its excellent oil and fuel resistance. M-PDM can be used as a curing agent in NBR formulations to enhance heat resistance and mechanical strength in tires that require resistance to oil and fuel exposure.   3.Epoxidized Natural Rubber (ENR): ENR is a modified form of natural rubber that offers improved heat resistance, tensile strength, and chemical resistance. M-PDM can be employed as a curing agent in ENR formulations to further enhance its heat resistance and mechanical properties.   It’s important to note thata the selection of rubber types and their respective formulations, including the dosage of M-PDM, will depend on the specific performance requirements of the tire application. The compatibility of M-PDM with other compounding ingredients and the curing characteristics of the rubber system should be taken into consideration. It is advisable to consult technical data sheets, rubber compound recipes, and the expertise of rubber compounders or material suppliers to optimize the formulation for your particular tire rubber application.   If you have any questions,pls feel free to contact: business@xysjgm.com  

N’,N’-phenylene dimaleimide (PDM) manufactured by Yangchen Tech is a specialized chemical compound used in high-performance tires to enhance their performance and properties. PDMI serves as a cross-linking agent in the tire manufacturing process and plays a crucial role in improving the tire’s performance in several ways:   1.Enhanced Tread Wear Resistance: PDM helps to improve the tread wear resistance of the tire. By cross-linking with other polymers and reinforcing agents in the tire’s rubber compound, PDM increases the overall durability and lifespan of the tire, allowing it to withstand abrasion and wear better.   2.Improved High-Temperature Performance: High-performance tires are often subjected to elevated temperatures during high-speed driving. PDM aids in enhancing the tire’s thermal stability, preventing the rubber from degrading under extreme heat conditions and maintaining its performance characteristics at higher temperatures.   3.Increased Traction and Grip: The cross-linking properties of PDM improve the tire’s ability to maintain traction and grip on the road surface. This is particularly important for high-performance tires designed for sports cars and performance vehicles, where superior handling and grip are essential.   4.Reduced Rolling Resistance: Rolling resistance refers to the force required to keep the tire rolling. High rolling resistance can lead to increased fuel consumption and reduced fuel efficiency. PDM can help reduce rolling resistance in high-performance tires, contributing to better fuel economy and lower carbon emissions.   5.Enhanced Cornering Stability: PDM’s contribution to improving the tire’s mechanical properties helps in enhancing cornering stability and steering response. This is crucial for high-performance tires, as drivers often demand precise and responsive handling during aggressive driving maneuvers.   6.Overall Tire Performance: By incorporating PDM into the tire compound, tire manufacturers can achieve a balance of various performance attributes, such as grip, durability, fuel efficiency, and ride comfort. PDM’s role in the cross-linking process allows for the fine-tuning of these properties, resulting in a high-performance tire suitable for specific applications and driving conditions.   It’s important to note that the specific formulation and composition of high-performance tires can vary between manufacturers, and PDM may be used in combination with other additives and materials to achieve the desired performance characteristics. Tire development is a complex and highly specialized field, and tire engineers carefully select materials and compounds to meet the specific requirements of different tire types and applications. If you have any questions,pls feel free to contact: business@xysjgm.com    

Phenylmethane bismaleimide (DMBMI) and polyimide resin are both types of thermosetting resins commonly used in various applications. While they share some similarities, there are key differences between them in terms of chemical structure, properties, and usage. Here are the main differences between DMBMI and polyimide resin: 1.Chemical Structure: DMBMI: It is a bismaleimide resin that contains maleimide functional groups. Its chemical structure consists of two maleimide rings connected by a diphenylmethane bridge. Polyimide Resin: Polyimide is a polymer with repeating imide (-CONH-) units in its chemical structure. It is typically synthesized from a dianhydride and a diamine. 2.Curing Mechanism: DMBMI: It acts as a curing agent or cross-linking agent in composite materials. It undergoes a cross-linking reaction when exposed to heat, resulting in a three-dimensional network structure. Polyimide Resin: Polyimide resins undergo a step-growth polymerization reaction, forming a high-molecular-weight polymer with strong covalent bonds. 3.Thermal Stability: DMBMI: It exhibits excellent thermal stability, with the ability to withstand high temperatures without significant degradation. Polyimide Resin: Polyimides are known for their outstanding thermal stability and can endure extreme temperatures, making them suitable for high-temperature applications. 4.Mechanical Properties: DMBMI: It offers good mechanical properties, including high strength and stiffness. It can enhance the mechanical performance of composites, such as tensile strength and impact resistance. Polyimide Resin: Polyimide resins possess excellent mechanical properties, including high tensile strength, toughness, and dimensional stability. 5.Applications: DMBMI: It is commonly used as a curing agent in composite materials, such as carbon fiber reinforced polymers (CFRP) and glass fiber reinforced polymers (GFRP). It is suitable for applications requiring high-temperature resistance and improved mechanical properties. Polyimide Resin: Polyimide resins find wide application in various industries, including aerospace, electronics, automotive, and electrical insulation. They are used for applications such as flexible circuits, thermal insulation, adhesives, coatings, and high-temperature components. 6.Processability: DMBMI: It is typically used as a curing agent in combination with other resins or polymers. Its processability depends on the specific formulation and compatibility with other materials. Polyimide Resin: Polyimides can be processed through various techniques, including casting, coating, molding, and film forming, depending on the desired application and form. It’s important to note that the specific properties and applications of DMBMI and polyimide resin can vary depending on the specific formulations and grades. It is recommended to consult technical data sheets and guidelines provided by the manufacturers for detailed information and usage instructions specific to your application.

Diphenylmethane bismaleimide (DMBMI) is a bismaleimide resin that can be used as a cross-linking agent or curing agent in the production of insulation materials. DMBMI provides enhanced thermal and mechanical properties, making it suitable for applications where high-temperature resistance and excellent electrical insulation are required. Here’s a general guide on how DMBMI can be used in insulation material manufacturing: 1.Material Preparation: Obtain the necessary base insulation material, such as fiberglass, aramid paper, or mica sheets. Clean and prepare the surface of the insulation material to ensure proper adhesion of the DMBMI resin. 2.Mixing: Wear appropriate personal protective equipment, including gloves, goggles, and a respirator, as DMBMI can be hazardous. Measure the appropriate amount of DMBMI resin and mix it with a suitable epoxy resin or thermosetting resin, depending on the specific requirements of the insulation material. Add any necessary additives or fillers as per the specific formulation requirements. 3.Impregnation or Coating: Apply the DMBMI resin mixture onto the surface of the insulation material using suitable coating techniques such as roll coating, dip coating, or spray coating. Ensure that the resin mixture is evenly distributed and thoroughly impregnates the insulation material. 4.Curing: Place the impregnated insulation material in an oven or heating chamber. Follow the recommended temperature and curing time provided by the resin manufacturer for curing the DMBMI resin. The curing process typically involves ramping up the temperature gradually to the desired level and maintaining it for a specified duration. This allows the DMBMI resin to cross-link and cure, resulting in a strong and thermally stable insulation material. 5.Post-Curing and Finishing: Once the curing process is complete, remove the insulation material from the oven and allow it to cool to room temperature. Trim, clean, and inspect the insulation material to ensure it meets the desired specifications. Further processing steps, such as cutting, shaping, or laminating, can be performed to create the final insulation product. It’s important to note that the specific process parameters and formulations may vary depending on the type of insulation material, the application requirements, and the manufacturer’s recommendations. It is recommended to consult technical data sheets and guidelines provided by the resin manufacturer for detailed instructions and optimal usage conditions when using DMBMI in insulation material production. Additionally, safety precautions and handling guidelines for working with hazardous materials should always be followed.

Diphenylmethane bismaleimide (DMBMI) is a type of bismaleimide resin that is commonly used as a curing agent or cross-linking agent in the production of Copper-Clad Laminates (CCL). CCL is a key component in the manufacturing of printed circuit boards (PCBs). DMBMI can be used in CCL production to provide enhanced thermal and mechanical properties. Here’s a general guide on how DMBMI can be used in CCL manufacturing: 1.Preparing the CCL: Obtain the necessary materials, including a suitable reinforcing substrate (typically glass fiber fabric) and a copper foil. Clean the copper foil surface to remove any contaminants that may affect adhesion. Pre-treat the reinforcing substrate according to the manufacturer’s instructions to ensure good bonding between the resin and the substrate. 2.Mixing: Wear appropriate personal protective equipment, including gloves, goggles, and a respirator, as DMBMI can be hazardous. Measure the appropriate amount of DMBMI resin and mix it with a compatible epoxy resin, such as a bisphenol-A-based epoxy. Add any necessary additives or fillers as per the specific requirements of the CCL formulation. 3.Impregnation: Apply the resin mixture onto the glass fiber fabric using suitable coating techniques such as roll coating, dip coating, or spray coating. Ensure that the resin is evenly distributed and impregnates the fabric uniformly. 4.Lamination: Place the impregnated glass fiber fabric between layers of copper foil to form a stack. Apply heat and pressure to the stack using a hot press or lamination press to facilitate the curing process. Follow the recommended temperature and pressure profiles provided by the resin manufacturer for curing the DMBMI resin. 5.Curing: Apply a controlled amount of heat and pressure to the stack, following the curing schedule provided by the resin manufacturer. The curing process typically involves ramping up the temperature to a specific level and maintaining it for a specified duration. This allows the DMBMI resin to cross-link and cure, resulting in a strong and stable CCL. 6.Post-curing and Finishing: Once the curing process is complete, allow the CCL to cool down to room temperature. Trim, clean, and inspect the CCL to ensure it meets the desired specifications. Further processing steps, such as drilling, etching, and plating, can be performed to create the final PCB product. It’s important to note that the specific process parameters and formulations may vary depending on the specific CCL requirements and the manufacturer’s recommendations. It is recommended to consult technical data sheets and guidelines provided by the resin manufacturer for detailed instructions and optimal usage conditions when using DMBMI in CCL production.

Application The polyimide films market has been segmented into FPC, specialty fabricated product, pressure sensitive tape, motor / generator and wire & cable. As per the findings of research, FPC held the largest share of the market in terms of both revenue and volume in 2016. Polyimide films are most preferred over other materials such as polycarbonates, epoxy resins, and polyurethanes, for manufacturing FPC owing to its blend of electrical, chemical, mechanical, and thermal properties. Asia-Pacific held the largest share of the polyimide films market in terms of both revenue and volume in 2016. In Asia-Pacific, PI films are mostly consumed in semiconductor foundries and semiconductor component manufacturing facilities located in Taiwan, China and Japan. In addition, growing usage of PI films based electronics devices among users has created surge in demand for the polyimide films market. How to make the polyimide film? Preparation of monomers. The first step is to prepare the monomers, which are the building blocks of polyimide resin. The most common monomers used to make polyimide resin are diamines and dianhydrides. Diamines are compounds with two amino groups, while dianhydrides are compounds with two carboxylic acid groups. Polycondensation reaction. The monomers are then reacted together in a polycondensation reaction to form poly(amic acid). This reaction is typically carried out in a solvent, such as dimethylformamide (DMF) or N,N-dimethylacetamide (DMAc). Imidization. The poly(amic acid) is then imidized to form polyimide. This is done by heating the poly(amic acid) to a high temperature, typically in the range of 200-300 degrees Celsius. The imidization reaction is exothermic, so the temperature of the reaction must be controlled carefully. Film formation. The polyimide can then be cast into a film. This is typically done by dissolving the polyimide in a solvent and then casting the solution onto a substrate. The solvent is then evaporated, leaving behind the polyimide film. The following are some additional details about the process: The choice of monomers will affect the properties of the resulting polyimide film. For example, the type of diamine used will affect the film’s thermal stability, while the type of dianhydride used will affect the film’s mechanical properties. The polycondensation reaction can be carried out in either a solution or a melt phase. The solution phase is more common, as it is easier to control the reaction conditions. The imidization reaction can be carried out in either a batch or a continuous process. The batch process is more common, but the continuous process is more efficient. The film formation process can be carried out using a variety of methods, including casting, spin coating, and extrusion. The casting method is the most common, as it is relatively simple and inexpensive. So far, the thermal decomposition temperature of our PI is 450°C, the long-term use temperature can reach more than 200°C, and the short-term use above 300°C is acceptable.

Absolutely! Polyimide resin is widely used in the production of polyimide PCBs (Printed Circuit Boards). Polyimide PCBs offer numerous advantages, making them a popular choice in various industries, especially those requiring high-performance and reliable electronic components. Polyimide resin’s unique properties make it an excellent material for PCBs. Here’s why: 1️⃣ Thermal Stability: Polyimide resin has exceptional heat resistance, allowing PCBs to withstand high temperatures during operation without compromising performance. This makes them suitable for applications in aerospace, automotive, and industrial environments. 2️⃣ Electrical Insulation: Polyimide resin provides excellent electrical insulation properties, ensuring reliable isolation between conductive traces and preventing electrical leakage or short circuits. It is crucial for sensitive electronic components and high-frequency applications. 3️⃣ Mechanical Strength: Polyimide resin imparts mechanical strength to PCBs, making them highly resistant to bending, flexing, and vibrations. This durability is essential for PCBs used in harsh environments or applications where the board may undergo mechanical stress. 4️⃣ Chemical Resistance: Polyimide resin exhibits robust chemical resistance, protecting PCBs from damage caused by exposure to various chemicals, including solvents, acids, and bases. This characteristic is particularly valuable in industrial or chemical processing applications. 5️⃣ Lightweight and Compact: Polyimide PCBs are lightweight and thin, allowing for space-efficient designs and reducing the overall weight of electronic devices. This feature is advantageous in applications where size and weight are critical factors, such as aerospace or portable electronics. By leveraging the exceptional properties of polyimide resin, PCB manufacturers can create highly reliable and durable circuit boards suitable for demanding applications. The use of polyimide PCBs has been instrumental in advancing technology and enabling innovations across industries. If you’re interested in incorporating polyimide PCBs into your projects or want to explore more about their capabilities, don’t hesitate to reach out or visit our website. Let’s unlock the potential of polyimide resin together and revolutionize the world of electronics!