Advanced Thermal Material Platform
B2B Thermal Material Platform for Industrial Cooling Projects
IPROJEX provides an industrial thermal material platform for companies that need more than a single standard interface material. The platform integrates thermal pastes, phase change materials, graphene-based heat spreaders, gap-filling pads, and hybrid layer structures into system-level cooling architectures for industrial electronics, power modules, embedded systems, and OEM assemblies.
Technology Scope
TIM / PCM / Graphene
Covers direct interface transfer, phase change behavior, heat spreading, and gap compensation.
Design Focus
System-Level
Material selection based on thermal path, mechanical pressure, surface geometry, and production process.
Integration Type
OEM / ODM
Suitable for industrial projects requiring custom formats, samples, validation, and series integration.
Application Field
Electronics
Built for processors, power electronics, control units, embedded systems, and compact cooling assemblies.
01Advanced Material Families
Advanced thermal designs often require more than one material function. A paste can improve direct interface contact, a phase change material can support repeatable thermal cycling, a graphene layer can spread concentrated heat laterally, and a pad can compensate mechanical tolerances. IPROJEX structures these technologies as a configurable platform for project-specific thermal stack development.
Graphene heat spreader layers
Phase change interface materials
Hybrid TIM stack systems
Thermal gap-filling pads
Industrial thermal compounds
Application-specific material formats
02Engineering Selection Criteria
Material selection is driven by the complete mechanical and thermal environment. Thermal conductivity alone does not define system performance. Contact pressure, layer thickness, surface flatness, pump-out behavior, dielectric requirements, and production repeatability must be evaluated together.
- Thermal load, hotspot location, and heat flux density
- Available contact pressure and compression range
- Gap distance, tolerance chain, and surface mismatch
- Operating temperature, thermal cycling, and aging behavior
- Electrical insulation, dielectric safety, and leakage requirements
- Manual assembly, automated dispensing, die-cut pads, or custom formats
03Industrial Use Cases
Advanced material platforms are used where standard interface solutions are not sufficient to control concentrated heat, inconsistent surface contact, variable gaps, or long-term reliability requirements. The target is stable thermal performance under real operating and production conditions.
- AI hardware, processors, GPUs, and accelerator modules
- Automotive ECUs, control units, and power electronics
- Compact industrial electronics and embedded systems
- Power modules, converters, inverter assemblies, and motor control systems
- Advanced cooling architectures with complex thermal paths
- OEM assemblies requiring repeatable production-side thermal performance
04System Benefits
The value of advanced materials is created by their interaction within the complete thermal stack. IPROJEX supports customers in evaluating how each layer affects interface resistance, heat spreading, mechanical tolerance, serviceability, and long-term thermal stability.
01Reduces thermal peaks through combined interface transfer and lateral heat spreading.
02Improves heatsink utilization by distributing concentrated heat over a larger active area.
03Supports cleaner assembly concepts through PCM materials, pads, and controlled formats.
04Enables project-specific optimization for OEM, ODM, and industrial production integration.
Advanced Thermal Design Principle
Not only transfer heat — control the interface, distribute concentrated thermal peaks, and design the complete thermal path as one system.
