多核系统的细粒度温度监测

A. Silva, Andre L. M. Martins, F. Moraes
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引用次数: 8

摘要

功率密度可能会限制多核系统可以消耗的能量。多核在其最大性能下可能导致安全温度违规,从而导致可靠性问题。动态热管理(DTM)技术是为了保证多核系统在不影响可靠性的情况下以良好的性能运行而提出的。DTM技术依赖于精确的温度信息和估计,这是一个计算复杂的问题。然而,相关工作通常抽象了温度监测的复杂性,假设有可用的温度传感器。与温度传感器相关的一个问题是它们的粒度,经常测量大系统区域的温度,而不是处理元素(PE)区域的温度。因此,本工作的第一个目标是提出多核心系统的细粒度(PE级)温度监测。第二是提出一个专用的硬件加速器来估计系统温度。结果表明,当应用精确的模型为系统管理提供温度估计时,软件性能可能是一个限制因素。另一方面,连接到多核的硬件加速器可以在运行时进行精细的温度估计,而不会牺牲系统性能。
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Fine-grain Temperature Monitoring for Many-Core Systems
The power density may limit the amount of energy a many-core system can consume. A many-core at its maximum performance may lead to safe temperature violations and, consequently, result in reliability issues. Dynamic Thermal Management (DTM) techniques have been proposed to guarantee that many-core systems run at good performance without compromising reliability. DTM techniques rely on accurate temperature information and estimation, which is a computationally complex problem. However, related works usually abstract the temperature monitoring complexity, assuming available temperature sensors. An issue related to temperature sensors is their granularity, frequently measuring the temperature of a large system area instead of a processing element (PE) area. Therefore, the first goal of this work is to propose a fine-grain (PE level) temperature monitoring for many-core systems. The second one is to present a dedicated hardware accelerator to estimate the system temperature. Results show that software performance can be a limiting factor when applying an accurate model to provide temperature estimation for system management. On the other side, the hardware accelerator connected to the many-core enables the fine-grain temperature estimation at runtime without sacrificing system performance.
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