T. Onuki, W. Uesugi, H. Tamura, A. Isobe, Y. Ando, S. Okamoto, K. Kato, T. Yew, Chen Bin Lin, J. Y. Wu, C. Shuai, Shao Hui Wu, James Myers, K. Doppler, M. Fujita, S. Yamazaki
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引用次数: 5
摘要
低功耗嵌入式存储器和工作频率为30 MHz的ARM Cortex-M0内核由60 nm c轴排列晶体铟镓氧化锌场效应管和65 nm Si CMOS组合而成。嵌入式存储器采用的结构是基于氧化物半导体的1T1C单元堆叠在硅感测放大器上。通过使每个位线与每个感测放大器一样短,该存储器在保留数据的同时实现了3nw的待机功率和11.7 μW/MHz的有功功率。M0核心采用了触发器,其中基于氧化物半导体的3T1C电池堆叠在Si扫描触发器电池上,没有面积开销,在保留数据的情况下实现了6 nW的待机功率。嵌入式存储器和M0核心的结合提供了高性能,低功耗的物联网设备,具有广泛的工作待机功率比。
Embedded memory and ARM Cortex-M0 core using 60-nm C-axis aligned crystalline indium-gallium-zinc oxide FET integrated with 65-nm Si CMOS
Low-power embedded memory and an ARM Cortex-M0 core that operate at 30 MHz were fabricated in combination with a 60-nm c-axis aligned crystalline indium-gallium-zinc oxide FET and a 65-nm Si CMOS. The embedded memory adopted a structure in which oxide semiconductor-based 1T1C cells are stacked on Si sense amplifiers. This memory achieved a standby power of 3 nW while retaining data and an active power of 11.7 μW/MHz by making each bitline as short as each sense amplifier. The M0 core adopted the flip-flop in which an oxide semiconductor-based 3T1C cell is stacked on the Si scan flip-flop cell without area overhead and achieved a standby power of 6 nW while retaining data. The combination of the embedded memory and the M0 core provided high-performance, low-power Internet of Things devices operating with a broad range of active standby power ratios.