Underlying materials science platform based on sp³–sp² interface engineering
We have built a complete carbon-based, atomic-level interface engineering platform, closing the loop from theoretical hypothesis to physical validation, and an airtight intellectual property protection network of 10 core patents. Through precise control of the sp³–sp² hybrid bonding network, we have achieved material performance leaps in the following three dimensions:
· Interface Engineering | · High-Performance Thermal Management | · Extreme Condition Response
An evolution path from engineering tools to physical computing potential
Through stress regulation of sp³–sp² bonding structures, we evolved from “heat dissipation tools” into functional substrates with “physical computing potential.” This path not only validates technical feasibility, but also reveals the vast imagination space at the intersection of materials science and computational physics
Establishing interface connection and structural stability engineering capability under extreme conditions
Achieving the leap from engineering tools to functional materials
Building a composite material platform entirely composed of carbon systems
Theoretical exploration stage
Long-term planning stage
Systematic evolution from engineering tools to all-carbon material systems
Centered on active fusion-bonded diamond tools, we have established engineering capability for diamond interface, high-temperature bonding, and structural stability under extreme conditions.
Introducing metallic phase to form composite materials, achieving the leap from engineering tools to functional materials, focusing on thermal conductivity, structural composite, and interface transport capability.
Through demetallization process, building a composite system centered on continuous sp³–sp² carbon network, providing underlying architecture for complex stress regulation and higher-order physical behavior exploration.
Based on the all-carbon composite platform, stress engineering extends from material function to the physical system level, constituting the endpoint of the evolution path and providing an experimental substrate for higher-order property exploration.
Underlying technical principles and tunable parameter space
The chemical bonding structure is the core kernel naturally evolved in the all-carbon composite stage. Through synergistic action of endogenous stress and chemical bonding, this structure forms a material platform with long-term stability and scalability, providing foundation for subsequent functional materials and physical exploration.
In the all-carbon composite system, carbon atoms can exist in different bonding modes:
Through high-temperature and high-pressure processes, atomic-level chemical bonding is achieved at the interface, generating a stable endogenous stress field and forming a uniquestress anchoring structure.
These parameters are typically regulated synergistically through:
to achieve target multi-scale structural states.
This "multi-state carbon network" with endogenous stress and chemical interconnection is an advantage from an engineering functional material perspective, and from a physics exploration perspective provides a high-dimensional complex property space—this is why we call it the"all-carbon composite material platform".
Based on the stress engineering platform, exploring evolution potential of all-carbon sp³–sp² structure in extreme physics and future computing
In the demetallized all-carbon composite stage, we have built a class of continuous carbon network structures centered on sp³–sp² chemical bonding and endogenous stress fields. This structure has demonstrated excellent thermal conductivity, mechanical properties, and long-term stability at the engineering level, while at a higher level naturally opening a series of physical windows not yet fully explored.
Under strong endogenous stress and non-uniform bonding environments, localized electronic structure may undergo reorganization, providing structural basis for unconventional superconductivity or related collective phenomena.
In existing material systems, carbon-based structures simultaneously possessing strong endogenous stress, continuous sp³–sp² bonding, and engineerable tuning windows remain rare, making this platform unique in fundamental structure exploration for unconventional superconducting materials.
Interconnected networks form highly coupled, disordered but controllable structural units at mesoscopic scale, providing physical carrier for complex dynamics and reservoir computing-like behavior.
Based on nonlinear response of material endogenous dynamics, this network can achieve efficient temporal information encoding. Through precise regulation of chaotic states, we aim to build a physical computing paradigm without traditional transistor logic, breaking through the compute-energy-efficiency bottleneck from the ground up.
Compared to condensed matter physics directions such as superconductivity, this direction is more exploratory. We are exploring a platform-based "quantum reservoir computing" model, but it is not a current primary technical target.
This platform is not directly aimed at current quantum computing architectures, but provides material-level foundation for exploring novel, non-von Neumann, physics-driven computing paradigms.
It must be emphasized that the above directions remain in the physical exploration stage and have not yet entered engineering or productization. Yet it is precisely this undeveloped physical ceiling that gives the platform potential value distinct from traditional functional materials at the long-term strategic level.
Our patent portfolio covers all key technical nodes from engineering foundations and functional materials to the platform core:
The above patent portfolio builds a complete intellectual property system frommaterial preparation、structural design to functional extension.