用物理人工智能提升数据中心运维效率,实现实时数字孪生。
Transforming Future Data Center Operations and Management via Physical AI
- 构建包含仿真引擎、AI训练和数字孪生的物理AI框架
- 实测温控预测误差仅0.18°C,远超传统模拟方法
- 适合关注数据中心智能化运维的研究者与工程师
数据中心作为支撑人工智能和数字经济的关键基础设施,正从互联网数据中心向AI数据中心演进,带来运营与管理的新挑战。为此,本文提出并开发了一种新型物理人工智能(PhyAI)框架,以推动未来数据中心的智能运维。系统包含三大核心模块:基于自研工业级仿真引擎的高精度数据中心运行模拟;基于NVIDIA PhysicsNemo的物理信息机器学习(PIML)模型训练与评估;以及基于NVIDIA Omniverse构建的五层数字孪生平台。该框架实现了对数据中心的数字化、优化与自动化,支持实时数字孪生。通过真实大规模数据中心的案例研究,构建了可实时预测温场与气流分布的代理模型,其温度预测中位数绝对误差仅为0.18 °C,显著优于传统的计算流体动力学/传热(CFD/HT)模拟方法。这一新范式为未来数据中心的物理人工智能研究提供了重要方向。
原文摘要 · Abstract (English)
Data centers (DCs) as mission-critical infrastructures are pivotal in powering the growth of artificial intelligence (AI) and the digital economy. The evolution from Internet DC to AI DC has introduced new challenges in operating and managing data centers for improved business resilience and reduced total cost of ownership. As a result, new paradigms, beyond the traditional approaches based on best practices, must be in order for future data centers. In this research, we propose and develop a novel Physical AI (PhyAI) framework for advancing DC operations and management. Our system leverages the emerging capabilities of state-of-the-art industrial products and our in-house research and development. Specifically, it presents three core modules, namely: 1) an industry-grade in-house simulation engine to simulate DC operations in a highly accurate manner, 2) an AI engine built upon NVIDIA PhysicsNemo for the training and evaluation of physics-informed machine learning (PIML) models, and 3) a digital twin platform built upon NVIDIA Omniverse for our proposed 5-tier digital twin framework. This system presents a scalable and adaptable solution to digitalize, optimize, and automate future data center operations and management, by enabling real-time digital twins for future data centers. To illustrate its effectiveness, we present a compelling case study on building a surrogate model for predicting the thermal and airflow profiles of a large-scale DC in a real-time manner. Our results demonstrate its superior performance over traditional time-consuming Computational Fluid Dynamics/Heat Transfer (CFD/HT) simulation, with a median absolute temperature prediction error of 0.18 °C. This emerging approach would open doors to several potential research directions for advancing Physical AI in future DC operations.
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