Generative AI can generate complex multimodal content within seconds, and large model training clusters are rapidly expanding to tens of thousands of GPUs, triggering an invisible "thermal crisis" in the physical world. Amid this heat dissipation revolution that shapes the future of the digital economy, Far East Electric stands out with forward-looking technical layout and years of experience in industrial heat dissipation. Our self-developed bionic liquid cooling technology delivers efficient and reliable thermal management support for global AI infrastructure construction.

The exponential growth of computing density has pushed traditional heat dissipation systems against multiple insurmountable bottlenecks. First comes the rigid upper limit of heat dissipation capacity: mainstream single-phase cold plates in the industry generally cap out at around 1000W. Faced with high-end GPU chips that often exceed 2000W, conventional solutions can only sustain operation by boosting flow rate and pressure drop, which ultimately leads to a vicious cycle of surging pump power consumption and reversed energy efficiency. Meanwhile, fragmented solutions are a widespread industry pain point. Liquid cooling plates, interface materials and CDU cooling distribution units are often sourced from different manufacturers with inconsistent interface standards, resulting in high adaptation and commissioning costs. After system integration, overall performance is greatly compromised, while liquid leakage risks and maintenance complexity rise accordingly.

Breaking free from conventional heat dissipation mindsets, Far East Electric innovatively proposes an integrated solution combining "bionic manifold microchannel liquid cooling plate + liquid metal TIM composite material", realizing dual system-level innovations in structural design and interface materials. Inspired by highly efficient biological heat dissipation mechanisms in nature, it mimics the hierarchical distribution of human blood vessel networks and plant leaf veins to construct multi-stage tapered uniform flow channels and local redevelopment structures. This enables fast and even distribution of coolant beneath chips, drastically enhancing convective heat exchange capacity while significantly cutting system pressure drop. Paired with high-thermal-conductivity liquid metal interface composite materials to form synergistic embedded thermal pathways, the technology effectively addresses interfacial thermal resistance and in-plane temperature difference issues, extracts heat accurately and efficiently from high-heat zones, and fundamentally restrains hot-spot failure and performance degradation.

Compared with the 1000W maximum heat dissipation capacity of mainstream single-phase cold plates, Far East Electric doubles performance with lower pump energy consumption. Under a 2300W load, it reduces temperature by over 40°C versus traditional heat dissipation schemes, achieving breakthrough improvements in energy efficiency per unit power input. At present, the dual innovative liquid cooling plates support customized development for multiple well-known architecture platforms, flexibly catering to the construction demands of various AI computing centers. Meanwhile, Far East Electric has built a full-stack liquid cooling product portfolio covering all industrial chain links, including core components such as liquid cooling plates, TIM thermal interface materials and CDU cooling distribution units. The integrated complete solution enables turnkey delivery and collaborative optimization, effectively resolving long-standing industry issues including fragmented solutions and poor component compatibility.

In the future, Far East Electric will keep advancing core thermal management technologies to continuously improve heat dissipation capacity per unit area and overall system energy efficiency, and develop heat dissipation solutions in advance for next-generation ultra-high-power chips. Guided by the strategy of "Electric Energy + Computing Power + AI", Far East Electric will further drive deep integration of liquid cooling, high-speed interconnection and power supply systems to deliver more holistic full-stack AIDC solutions, realizing full-link optimization covering thermal management, data transmission and power assurance.