Betely provides thermal management materials and thermal conductive materials for electronics, energy systems and automotive applications. Our material portfolio includes thermal interface materials, thermal grease, thermal conductive gel, thermal potting material and thermal compound solutions for heat transfer, gap filling and long-term reliability.
These heat dissipation materials are designed to support different thermal paths, from chip-to-heat-sink interfaces and PCB assemblies to power modules, battery systems and protected electronic components. Betely can recommend suitable materials based on gap size, thermal resistance target, dispensing process, operating temperature and reliability requirements.
Thermal management materials are used to transfer heat from heat-generating components to heat sinks, housings, cooling plates or other heat dissipation structures. In electronic devices, power modules, batteries and high-performance assemblies, these materials help improve thermal contact, fill micro-gaps and reduce heat accumulation.
Unlike ordinary filling or bonding materials, professional heat dissipation materials must balance thermal conductivity, thermal resistance, bond line thickness, viscosity, dispensing performance, insulation and aging stability. The right material selection can improve device stability, reduce hot spots and support long-term operating reliability.
Improve heat transfer between chips, modules, PCBs, batteries and housings
Reduce interface thermal resistance and unstable thermal contact
Support screen printing, automated dispensing, potting or gap-filling processes
Maintain stable performance under heat, humidity, vibration and aging
Betely offers different thermal conductive materials for interface heat transfer, gap filling, potting and long-term reliability requirements. The portfolio supports a range of applications from thin-interface heat transfer to larger gap filling and encapsulation.
Thermal grease and thermal compound are suitable for thin bond lines and low thermal resistance requirements in chip, module and heat sink interface applications.
Thermal conductive gel is designed for gap filling, stress relief and automated dispensing. After curing, it helps fill gaps while supporting vibration and stress reduction.
Thermal potting material can be used when electronic assemblies require heat dissipation, encapsulation, insulation and environmental protection.
Thermal interface materials improve contact between heat-generating devices and thermal structures, helping reduce thermal resistance and improve heat dissipation efficiency.
| Material Type | Main Function | Suitable Requirement |
|---|---|---|
| Thermal Grease / Thermal Compound | Thin-interface heat transfer and low thermal resistance | Small BLT, chip/module-to-heat-sink contact |
| Thermal Conductive Gel | Gap filling, stress relief and vibration reduction | Uneven gaps, dispensing process, cured soft interface |
| Thermal Potting Material | Encapsulation, insulation and heat dissipation | Power electronics, PCB assemblies and protected modules |
| Thermal Interface Materials | Improve heat transfer between components and heat sinks | Electronics, energy and automotive thermal paths |
Choosing the right thermal interface materials requires more than comparing thermal conductivity. Engineers also need to evaluate interface thickness, pressure, viscosity, dispensing method, insulation, pump-out resistance and aging stability.
| Selection Factor | Why It Matters | Material Direction |
|---|---|---|
| Thermal Conductivity | Determines heat transfer capability under the same structure | Thermal grease, gel or potting material |
| Thermal Resistance | Directly affects actual interface heat transfer efficiency | Low-resistance thermal grease / thermal compound |
| Bond Line Thickness | Thin BLT is important for compact chip and module interfaces | Thermal interface materials with stable BLT control |
| Viscosity and Rheology | Affects dispensing, screen printing, overflow and processing stability | Custom-engineered thermal grease or gel |
| Gap Size | Large or uneven gaps require better filling ability | Thermal conductive gel |
| Encapsulation Need | Some assemblies require protection, insulation and heat dissipation together | Thermal potting material |
| Long-Term Reliability | Material should resist drying, cracking, sagging and pump-out | High-reliability heat dissipation materials |
For B2B customers, thermal conductive materials must be suitable not only for laboratory testing, but also for real production processes such as screen printing, automated dispensing, curing, assembly and long-term operation.
Compatible with screen printing and automated dispensing processes
Reduced risk of dripping, overflow or contamination during application
Stable thermal performance after assembly
Resistance to drying and pump-out during long-term use
High-temperature and high-humidity reliability support
Material selection based on BLT, viscosity and application pressure
This section should highlight Betely’s process understanding, not only product parameters. It helps the page serve engineers, R&D teams and purchasing teams looking for reliable heat dissipation materials.
These questions help engineers and purchasing teams understand the differences between thermal interface materials, thermal grease, thermal conductive gel, thermal potting material and other heat dissipation materials before requesting a recommendation.
Yes. Betely can recommend suitable thermal conductive materials based on your thermal path, gap size, processing method, reliability requirements and target application.
Thermal management materials are used to transfer heat from electronic components, power modules, batteries or assemblies to heat sinks, housings or cooling structures.
Thermal grease is usually used for thin-interface heat transfer and low thermal resistance, while thermal conductive gel is better for gap filling, dispensing, stress relief and vibration reduction.
Thermal potting material is suitable when an electronic assembly requires heat dissipation, encapsulation, insulation and environmental protection at the same time.