In view of the underlying shortcomings of traditional heat dissipation solutions, Debaishun relies on the mature MPCVD mass production process to create high-performance diamond heat sinks. With ultra-high thermal conductivity, ultra-low thermal expansion, high stability, and lightweight material properties, it reconstructs the heat dissipation path from the source of chip heat conduction, completely solving the pain points of traditional solutions that treat the symptoms but not the root cause, and becomes the ultimate solution for high-end chip heat dissipation.

Debaishun focuses on the R&D and production of diamond heat sink sheets. Its core product, 12-inch wafer-level conductive diamond heat sink, is designed for extreme thermal management scenarios such as AI computing chips, high-power semiconductors, laser devices, and low-altitude satellite communications.

Another major new discovery in BDD boron-doped diamond. Scientists have discovered the plasmon effect in boron-doped diamond for the first time, opening up a new path for quantum information technology! Recently, a breakthrough study was published in the journal Nature Communications. Scientists discovered a new characteristic-the plasmon effect in boron-doped diamond (BDD) for the first time. This discovery not only reveals the profound impact of boron doping on the electronic structure of diamond, but also provides new possibilities for the development of quantum information technology. As a wide-bandgap semiconductor, diamond has attracted much attention due to its excellent thermal conductivity, high breakdown electric field, and high carrier mobility at room temperature. By doping it with boron, diamond can exhibit metal-like properties and even become superconducting in some cases. However, previous research on boron-doped diamond has mainly focused on electronic conductivity, while research on its optical properties has been phased out.

Diamond, as a multifunctional ultra-extreme material, stands out among many natural substances. It has a series of outstanding characteristics, such as the highest hardness, which makes it irreplaceable in the field of material processing; extremely high resistivity, ensuring its unique advantages in electrical insulation; extremely high thermal conductivity, making it an ideal choice to solve heat dissipation problems; extremely low thermal expansion coefficient, ensuring good dimensional stability in temperature changing environments; extremely wide spectral transmission range, spanning from 225nm in the ultraviolet to 25μm in the infrared (only wavelength 1.8μm - Except for the 2.5μm range), it can maintain excellent transmittance even in the microwave range, showing great application potential in the optical field; its very wide bandgap provides a key foundation for its application in semiconductor devices; its extremely high carrier mobility helps achieve efficient electron transmission; and its very good chemical stability can be used in many applications.