Thermal-Aware Test Scheduling Using On-chip Temperature Sensors

Chunhua Yao, K. Saluja, P. Ramanathan
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引用次数: 34

Abstract

With scaling of technology and increasing design sizes, thermal issues are emerging to be one of the major concerns for modern Very-Large-Scale Integration (VLSI) testing due to both increasing power densities and higher reliability requirements. However, in all existing thermal-aware test scheduling research, test schedule is computed a priori as a static schedule using an estimate of the power consumed by each test. Due to the popular peak power model and increasing process variations, estimated test power values can be far from the actual power consumption. Consequently, the thermal profile of the chip estimated during off-line scheduling can be substantially different from that during actual testing. In this paper, we propose a dynamic thermal-aware test scheduling method using on-chip temperature sensors. We first define a test architecture that supports dynamic test scheduling and then develop a scheduling algorithm. Next, we perform simulation studies on ITC’02 benchmarks. Our simulation results show that the performance of the thermal aware test scheduling can be substantially improved with the help of on-chip temperature sensors, especially for chips with many cores.
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使用片上温度传感器的热感知测试调度
随着技术的规模化和设计尺寸的增加,由于功率密度的增加和可靠性要求的提高,热问题正在成为现代超大规模集成电路(VLSI)测试的主要关注点之一。然而,在现有的热感知测试调度研究中,测试调度都是根据每次测试消耗的功率估计先验地计算为静态调度。由于流行的峰值功率模型和不断增加的工艺变化,估计的测试功率值可能与实际功耗相差甚远。因此,在离线调度期间估计的芯片热分布可能与实际测试期间的热分布有很大不同。本文提出了一种基于片上温度传感器的动态热感知测试调度方法。我们首先定义了一个支持动态测试调度的测试架构,然后开发了一个调度算法。接下来,我们对ITC ' 02基准进行了仿真研究。仿真结果表明,采用片上温度传感器可以大大提高热感知测试调度的性能,特别是对于多核芯片。
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