Learning with Fewer States: A Robust On-Chip Learning Algorithm Resilient to Conductance State Constraints in RRAM-Based Neural Networks

In this work, we propose a highly accurate and energy-efficient on-chip learning algorithm, which leverages the intrinsic variation in analog RRAM to overcome the non-convergence in conventional Manhattan weight update rules due to the limited intermediate RRAM states. The proposed learning approach achieves approximately a 15× improvement in classification accuracy despite the limited number (~20) of intermediate states available in RRAM cells. Our findings underscore the potential for reliable and efficient on-chip learning in RRAM-based neural network systems.

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Publication Details

Published
2025-06-08
DOI
https://doi.org/10.23919/snw65111.2025.11097211
Primary Topic
Advanced Memory and Neural Computing
Type
article
Field-Weighted Citation Impact
0.00

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article

Learning with Fewer States: A Robust On-Chip Learning Algorithm Resilient to Conductance State Constraints in RRAM-Based Neural Networks

Rui Hua Xie, Jingwei Sun, Zhixing Cai, Ling Liang et al.
Advanced Memory and Neural Computing
article

Learning with Fewer States: A Robust On-Chip Learning Algorithm Resilient to Conductance State Constraints in RRAM-Based Neural Networks

Rui Hua Xie, Jingwei Sun, Zhixing Cai, Ling Liang, Zongwei Wang, Zhizhen Yu, Lin Bao, Yimao Cai, Zheng Zhou, Zezhi Cheng
article en

Abstract

In this work, we propose a highly accurate and energy-efficient on-chip learning algorithm, which leverages the intrinsic variation in analog RRAM to overcome the non-convergence in conventional Manhattan weight update rules due to the limited intermediate RRAM states. The proposed learning approach achieves approximately a 15× improvement in classification accuracy despite the limited number (~20) of intermediate states available in RRAM cells. Our findings underscore the potential for reliable and efficient on-chip learning in RRAM-based neural network systems.

Peking University (CN)
National Natural Science Foundation of China, Structural Timber Innovation Company, Beijing Municipal Science and Technology Commission, Higher Education Discipline Innovation Project, Beijing Nova Program
Openalex Percentile: Top 83%
Advanced Memory and Neural Computing
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