Solving thermal management limits in the AI and new energy era

A material platform based on sp³–sp² carbon-based interface engineering

This platform focuses on AI computing, new energy thermal management, advanced interface materials, and high-hardness, high-conductivity applications, delivering breakthrough thermal management solutions for high-power-density electronic devices.

View Technology Applications

sp³–sp² Carbon-Based Interface Engineering Platform

sp² structure layer
Atomic covalent bridging
sp³ structure layer
Atomic-level interface engineering

Atomic Logic (Core Moat)

Interface engineering based on sp³–sp² hybrid bonding

Atomic-level interface bonding

Controllable coexistence of carbon atom multi-valency

Physical Mechanism Bridge

Building a stable all-carbon covalent bonding network

Generating tunable endogenous stress fields and heterogeneous energy-level environments

Performance Beyond Traditional Composites

Thermal
Mechanical
Electrical

Technology Evolution Path

View Full Technology Architecture

Based on the same underlying platform, technology is evolving toward:

  • ·Advanced packaging thermal materials
  • ·High-power device thermal management
  • ·Solid-state battery structural skeleton

From Theory Validation to Sample Delivery

Our phased results

Currently achieved

1. High thermal conductivity diamond-copper composite
Lab-tested thermal conductivity ≥ 680 W/m·KWith further improvement potential
2. Reproducible all-carbon functional structures
Sample preparation capability

Process & Performance Closure

Completed lab-level closed-loop validation from physical hypothesis → process scheme design → sample trial; preliminary sample preparation and performance testing are underway.

Deliverable Samples

Stable diamond-copper composite samples; some have completed engineering-level validation of key thermal metrics and entered further optimization.

Independent Intellectual Property

Core technology routes are fully self-developed; key technologies have been patented, ensuring independence and sustainable evolution of the technology system.

Platform Advantages

01 Source-Level Innovation

  • ·核心动作:Reject traditional physical blending; adopt atomic-level covalent bonding
  • ·核心价值:Build sp³–sp² bridging network
  • ·物理效应:Enable precise control of internal stress fields and energy-level environments, delivering a material platform that pushes beyond limits for AI and new energy thermal management

02 Patent Moat

  • ·布局逻辑:Preparation process, bonding structure, stress control, and functional extension
  • ·现状:Multiple core patents deployed; full IP closed-loop in place
  • ·价值:Solid technical boundaries and legal safeguards for product iteration and application expansion

03 Industrialization Leap

  • ·技术状态:From lab hypothesis to process closure; samples have completed engineering-level thermal validation
  • ·合作模式:Strategic licensing and joint development open
  • ·愿景:Partner with long-cycle strategic allies to define the physical boundaries of next-gen thermal management materials

Platform Positioning & Value

Application Scenarios & Future Interfaces

Thermal interface (TIM)
Heat spreader substrate
Exploratory physical devices

Reserved structural & property interfaces

Core Platform Logic

Carbon-based interface engineeringsp² / sp³ hybrid bonding
Stress engineeringTunable electronic environment
Multi-valency carbon atomsAtomic coexistence structure

Traditional material limits

High power density, CTE mismatch, reliability bottleneck

Explore Technical Cooperation

View full technology architecture or get in touch with us