Crossbar RRAM Arrays: Selector Device Requirements During Write Operation

A comprehensive analysis of write operations (SET and RESET) in a resistance-change memory (resistive random access memory) crossbar array is carried out. Three types of resistive switching memory cells-nonlinear, rectifying-SET, and rectifying-RESET-are compared with each other in terms of voltage...

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Veröffentlicht in:IEEE transactions on electron devices 2014-08, Vol.61 (8), p.2820-2826
Hauptverfasser: Sungho Kim, Jiantao Zhou, Lu, Wei D.
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Lu, Wei D.
description A comprehensive analysis of write operations (SET and RESET) in a resistance-change memory (resistive random access memory) crossbar array is carried out. Three types of resistive switching memory cells-nonlinear, rectifying-SET, and rectifying-RESET-are compared with each other in terms of voltage delivery, current delivery, and power consumption. Two different write schemes, V/2 and V/3, were considered, and the V/2 write scheme is preferred due to much lower power consumption. A simple numerical method was developed that simulates entire current flows and node voltages within a crossbar array and provides a quantitative tool for the accurate analysis of crossbar arrays and guidelines for developing reliable write operation.
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subjects Arrays
Crossbar
Devices
Electric potential
Guidelines
Junctions
Leakage currents
Power consumption
Power demand
Random access memory
Reliability
Resistance
resistive random access memory (RRAM)
selector device
Selectors
sneak path
Switches
Voltage
write margin
write scheme
title Crossbar RRAM Arrays: Selector Device Requirements During Write Operation
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