支持“理解”能力的未来计算系统(FCS)

R. Beausoleil, T. Vaerenbergh, Kirk M. Bresniker, Catherine E. Graves, Kimberly Keeton, Suhas Kumar, Can Li, D. Milojicic, S. Serebryakov, J. Strachan
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引用次数: 1

摘要

摩尔定律的终结加速了数据采集、处理和存档的大规模爆炸,这为彻底重新设计技术、设备、硬件架构、软件堆栈和人工智能堆栈创造了挑战和机遇,从而使未来的计算系统具有“理解”能力。我们提出了一个基于内存驱动计算人工智能架构的未来计算系统(FCS),它利用不同类型的下一代加速器(例如,Ising和Hopfield Machines),通过Gen-Z互连的智能继任者连接。在这个架构之上,我们提出了一个软件堆栈,随后,在软件堆栈之上构建了一个人工智能堆栈。虽然智能特征(学习,训练,自我意识等)渗透到所有层,但我们也将ai特定组件分离到单独的层中以进行清晰的设计。fcs中的人工智能有两个方面:a)将人工智能嵌入系统以使系统更好:性能更好、更健壮、自愈、可维护、可修复和节能。b) AI作为对系统中包含的信息的推理水平:有监督和无监督的技术在系统中发现数据之间的关系。开发软件和人工智能堆栈将需要适应每个冗余组件。至少在开始阶段,专业化是必需的。出于这个原因,从一个可互操作的、内存驱动的计算体系结构和相关的互连开始,对于后续的推广是必不可少的。我们的架构是可组合的,也就是说,它可以在:a)整体,b)每层,c)层内的每个组件(例如,只有一个加速器,用例等)中进行;或者d)探索跨层的特定特征。
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Future Computing Systems (FCS) to Support "Understanding" Capability
The massive explosion in data acquisition, processing, and archiving, accelerated by the end of Moore's Law, creates a challenge and an opportunity for a complete redesign of technology, devices, hardware architecture, software stack and AI stack to enable future computing systems with "understanding" capability. We propose a Future Computing System (FCS) based on a memory driven computing AI architecture, that leverages different types of next generation accelerators (e.g., Ising and Hopfield Machines), connected over an intelligent successor of the Gen-Z interconnect. On top of this architecture we propose a software stack and subsequently, an AI stack built on top of the software stack. While intelligence characteristics (learning, training, self-awareness, etc.) permeate all layers, we also separate AI-specific components into a separate layer for clear design. There are two aspects of AI in FCSs: a) AI embedded in the system to make the system better: better performing, more robust, self-healing, maintainable, repairable, and energy efficient. b) AI as the level of reasoning over the information contained within the system: the supervised and unsupervised techniques finding relationships over the data placed into the system. Developing the software and AI stack will require adapting to each redundant component. At least initially, specialization will be required. For this reason, starting with an interoperable, memory driven computing architecture and associated interconnect is essential for subsequent generalization. Our architecture is composable, i.e., it could be pursued in: a) its entirety, b) per-layer c) per component inside of the layer (e.g., only one of the accelerators, use cases, etc.); or d) exploring specific characteristics across the layers.
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