TY - JOUR
T1 - Electrical characterization and modeling of 1T-1R RRAM arrays with amorphous and poly-crystalline HfO2
AU - Grossi, Alessandro
AU - Zambelli, Cristian
AU - Olivo, Piero
AU - Crespo-Yepes, Alberto
AU - Martin-Martinez, Javier
AU - Rodriguez, Rosana
AU - Nafria, Monserrat
AU - Perez, Eduardo
AU - Wenger, Christian
PY - 2017
Y1 - 2017
N2 - n this work, a comparison between 1T-1R RRAM arrays, manufactured either with amorphous or poly-crystalline Metal–Insulator–Metal cells, is reported in terms of performance, reliability, Set/Reset operations energy requirements, intra-cell and inter-cell variability during 10k endurance cycles and 100k read disturb cycles. The modeling of the 1T-1R RRAM array cells has been performed with two different approaches: (i) a physical model like the Quantum Point Contact (QPC) model was used to find the relationship between the reliability properties observed during the endurance and the read disturb tests with the conductive filament properties; (ii) a compact model to be exploited in circuit simulations tools which models the I–V characteristics of each memory cells technology.
AB - n this work, a comparison between 1T-1R RRAM arrays, manufactured either with amorphous or poly-crystalline Metal–Insulator–Metal cells, is reported in terms of performance, reliability, Set/Reset operations energy requirements, intra-cell and inter-cell variability during 10k endurance cycles and 100k read disturb cycles. The modeling of the 1T-1R RRAM array cells has been performed with two different approaches: (i) a physical model like the Quantum Point Contact (QPC) model was used to find the relationship between the reliability properties observed during the endurance and the read disturb tests with the conductive filament properties; (ii) a compact model to be exploited in circuit simulations tools which models the I–V characteristics of each memory cells technology.
U2 - 10.1016/j.sse.2016.10.025
DO - 10.1016/j.sse.2016.10.025
M3 - Article
SN - 0038-1101
VL - 128
SP - 187
EP - 193
JO - SOLID-STATE ELECTRONICS
JF - SOLID-STATE ELECTRONICS
ER -