In today's increasingly sophisticated and powerful electronic devices, "heat generation" has become a key bottleneck restricting product performance and lifespan. From everyday smartphones and laptops to power equipment and new energy components in industrial production, excessively high temperatures can not only cause equipment malfunctions and frequent breakdowns, but also shorten the lifespan of core components and even pose safety hazards. The emergence of thermally conductive silicone rubber provides an efficient and reliable solution to this problem, making it an indispensable core material in the field of thermal management.



As a functional material that combines thermal conductivity with rubber elasticity, the core advantages of thermally conductive silicone rubber are primarily reflected in its precisely matched hardness range and stable vulcanization system. The product hardness ranges from 30-80 Shore A, from soft and easy to conform to tough and deformation-resistant, allowing for flexible selection based on the needs of different application scenarios. The soft version can tightly fill the tiny gaps between electronic components and heat dissipation structures, eliminating thermal conduction obstacles caused by air gaps; the tough version can maintain shape stability in complex molding processes, adapting to the assembly requirements of high-precision components.More noteworthy is that the DBPMH vulcanization system it adopts endows the material with excellent heat resistance. Even under long-term high-temperature working environment, it can maintain structural stability and will not have problems such as aging, cracking or decreased thermal conductivity, thus ensuring the long-term reliable operation of the equipment.

Thermal conductivity is a core indicator for evaluating thermal management materials, and thermally conductive silicone rubber performs exceptionally well in this dimension. Its thermal conductivity can reach 0.5-2.0 W/(m・K), a range that means it can quickly establish a "green channel" for heat transfer, efficiently conducting excess heat generated by electronic components to heat dissipation devices, thereby effectively controlling component temperature and preventing performance degradation due to overheating.Meanwhile, the product's high strength makes it more practical in real-world applications—it can withstand a certain amount of mechanical stress during cutting, molding, and assembly, and is not easily damaged or deformed. This ensures ease of production and processing, extends the material's lifespan, and reduces subsequent maintenance costs.

In terms of application expansion, thermally conductive silicone rubber exhibits excellent adaptability, playing a crucial role, especially in the manufacture of core thermal management components such as thermally conductive silicone tapes and pads. In the consumer electronics field, thermally conductive silicone pads are widely used between mobile phone chips, laptop CPUs, and heat dissipation modules, achieving efficient heat conduction through tight adhesion, allowing devices to maintain smooth operation even under high loads. In the industrial equipment field, thermally conductive silicone tapes can be used in the heat dissipation structures of power inverters and LED lighting fixtures, adapting to complex industrial working environments thanks to their excellent weather resistance and thermal conductivity stability.In the new energy field, it is a crucial component of the power battery pack cooling system. By evenly dissipating the heat generated during battery operation, it ensures a balanced temperature within the battery pack, thereby improving the safety and cycle life of the power battery.

Beyond its core performance and wide range of applications, thermally conductive silicone rubber's environmentally friendly properties and ease of processing have also won it market favor. The product strictly adheres to environmental standards during production, containing no harmful substances and meeting the demands of modern industry for green materials. Its compatibility with compression molding processes enables mass production with high precision, satisfying customized needs for different specifications and shapes, significantly improving production efficiency and reducing production costs for enterprises. Whether it's a small electronic component manufacturer or a large industrial equipment producer, choosing thermally conductive silicone rubber can optimize product thermal management solutions and enhance core product competitiveness.