Core Viewpoint - The article emphasizes the importance of power and energy efficiency in the second half of AI data centers, highlighting the ongoing electricity shortages in the U.S. and the impact of data centers on electricity costs [2][4]. Group 1: AI Data Center Transformation - The traditional computing centers are evolving into AI factories, making power infrastructure a critical factor for deployment and scalability [7]. - NVIDIA proposes an 800VDC power distribution system combined with multi-time scale energy storage to address the explosive power demands of AI workloads [7][10]. Group 2: Technical Innovations - The shift from traditional low-voltage systems to an 800VDC architecture eliminates unnecessary AC-DC conversions, enhancing overall efficiency to over 90% [10][12]. - The new architecture supports high-density GPU clusters, allowing for scalability exceeding 1 megawatt per rack while reducing copper cable usage by 157% [12][13]. Group 3: Industry Collaboration - Building the 800VDC ecosystem requires collaboration across the industry, with NVIDIA partnering with various silicon suppliers and power system component partners [11]. - The Open Compute Project (OCP) is facilitating the establishment of open standards for voltage ranges and connectors [11]. Group 4: Solid-State Transformer (SST) Technology - SST technology is identified as a key solution for the next generation of data centers, with increasing demand in North America and significant market potential [21][22]. - Major companies like NVIDIA, Google, and Microsoft are actively developing SST solutions, with NVIDIA's Rubin architecture expected to adopt SST as a standard [21][22]. Group 5: Market Potential and Projections - The global market for SST could reach 800-1000 billion yuan by 2030, assuming a 20% penetration rate in new AI data centers [23]. - The demand for efficient power solutions is driving the rapid adoption of SST and HVDC technologies, with significant advancements expected by 2026 [22][24].
电力话题持续升温--英伟达发布800V HVDC白皮书