TY - JOUR
T1 - Resistive switching characteristics and mechanisms in silicon oxide memory devices
AU - Chang, Yao Feng
AU - Fowler, Burt
AU - Chen, Ying Chen
AU - Zhou, Fei
AU - Wu, Xiaohan
AU - Chen, Yen Ting
AU - Wang, Yanzhen
AU - Xue, Fei
AU - Lee, Jack C.
N1 - Publisher Copyright:
© 2016 by Walter de Gruyter Berlin/Boston 2016.
PY - 2019
Y1 - 2019
N2 - Intrinsic unipolar SiOx-based resistance random access memories (ReRAM) characterization, switching mechanisms, and applications have been investigated. Device structures, material compositions, and electrical characteristics are identified that enable ReRAM cells with high ON/OFF ratio, low static power consumption, low switching power, and high readout-margin using complementary metal-oxide semiconductor transistor (CMOS)-compatible SiOx-based materials. These ideas are combined with the use of horizontal and vertical device structure designs, composition optimization, electrical control, and external factors to help understand resistive switching (RS) mechanisms. Measured temperature effects, pulse response, and carrier transport behaviors lead to compact models of RS mechanisms and energy band diagrams in order to aid the development of computer-aided design for ultralarge-v scale integration. This chapter presents a comprehensive investigation of SiOx-based RS characteristics and mechanisms for the post-CMOS device era.
AB - Intrinsic unipolar SiOx-based resistance random access memories (ReRAM) characterization, switching mechanisms, and applications have been investigated. Device structures, material compositions, and electrical characteristics are identified that enable ReRAM cells with high ON/OFF ratio, low static power consumption, low switching power, and high readout-margin using complementary metal-oxide semiconductor transistor (CMOS)-compatible SiOx-based materials. These ideas are combined with the use of horizontal and vertical device structure designs, composition optimization, electrical control, and external factors to help understand resistive switching (RS) mechanisms. Measured temperature effects, pulse response, and carrier transport behaviors lead to compact models of RS mechanisms and energy band diagrams in order to aid the development of computer-aided design for ultralarge-v scale integration. This chapter presents a comprehensive investigation of SiOx-based RS characteristics and mechanisms for the post-CMOS device era.
KW - proton exchange reaction
KW - Resistive switching mechanism
KW - silicon oxide
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U2 - 10.1515/psr-2016-0011
DO - 10.1515/psr-2016-0011
M3 - Article
AN - SCOPUS:85046153554
SN - 2365-659X
VL - 1
JO - Physical Sciences Reviews
JF - Physical Sciences Reviews
IS - 5
M1 - 20160011
ER -