A > 64 Multiple States and > 210 TOPS/W High Efficient Computing by Monolithic Si/CAAC-IGZO + Super-Lattice ZrO2/Al2 O3/ZrO2 for Ultra-Low Power Edge AI Application

M.-C. Chen, S. Ohshita, S. Amano, Y. Kurokawa, S. Watanabe, Y. Imoto, Y. Ando, Wen-Hsuang Hsieh, C.H. Chang, C. Wu, S. Chuang, H. Yoshida, M. Lu, M. Liao, S. Chang, S. Yamazaki
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引用次数: 2

Abstract

We present a novel Si/CAACFIGZO + SuperLattice ZrO2/Al2 O3/ZrO2 (SL-ZAZ) analog in-memory computing (AiMC) chip by monolithic 3D technique with the high thermal stability of Si/OS process. The SL-ZAZ not just improves storage capacitance > 50 %, but also makes leakage current lower > 30% compared with our last year’s IEDM work. Due to this study, the monolithic Si/CAAC-IGZO + SL-ZAZ technique can further reduce unit cell layout area by 25 % for ultra-low power edge A I application. This monolithic AiMC chip achieves > 64 multiple weighting states, an operation energy efficiency > 210 TOPS/W, and an inference accuracy can keep over 90 % (MNIST) even at 125°C high temperature operation.
单片Si/CAAC-IGZO +超晶格ZrO2/ al2o3 /ZrO2超低功耗边缘人工智能应用的A > 64多态和> 210 TOPS/W高效计算
采用单片三维技术设计了一种新型Si/CAACFIGZO +超晶格ZrO2/ al2o3 /ZrO2 (SL-ZAZ)模拟内存计算(AiMC)芯片,具有Si/OS工艺的高热稳定性。与去年的IEDM工作相比,SL-ZAZ不仅使存储电容提高了50%以上,而且使泄漏电流降低了30%以上。由于这项研究,单片Si/CAAC-IGZO + SL-ZAZ技术可以进一步减少25%的单位电池布局面积,用于超低功耗边缘a1应用。该单片AiMC芯片实现了> 64个多重加权状态,运行能效> 210 TOPS/W,即使在125°C高温下运行,推理精度也可以保持在90%以上(MNIST)。
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