Finetuning Method Improves DNN Deployment on ReRAM In-Memory Computing.

Ching-Yi Lin, Shamik Kundu, Arnab Raha, Sahil Shah· June 17, 2026 View original

Summary

This work proposes a finetuning-based hardware-aware training algorithm to enable robust deep neural network deployment on ReRAM In-Memory Computing (IMC) by mitigating I-V non-linearity and retention errors. The method achieves high accuracy on large-scale models with minimal training overhead, addressing limitations of traditional architectures.

Traditional computing architectures face performance bottlenecks, leading to increased interest in In-Memory Computing (IMC) using ReRAM crossbar arrays for their density and energy efficiency. However, practical deployment of ReRAM is hindered by hardware non-idealities like I-V non-linearity and retention errors. Existing hardware-aware training methods often require extensive retraining, which is impractical for large, modern AI models. To overcome this, researchers have developed a finetuning-based hardware-aware training algorithm. This approach allows for robust deployment of deep neural networks on ReRAM with significantly reduced training overhead. It addresses I-V non-linearity through a range-shrunk sinh transformation and integrates retention errors directly into a regularization loss during the finetuning process. Evaluations across various models and tasks, including image classification and question-answering, demonstrate the method's effectiveness. It maintains accuracy comparable to base models for ResNet18 and DeiT-Tiny, shows less than 2% accuracy degradation for MobileNetV3 on ImageNet, and only a 1-point F-1 score degradation on SQuAD v2, proving its viability for large-scale AI deployment on ReRAM.

Why it matters

This innovation is crucial for making energy-efficient In-Memory Computing with ReRAM practical for AI, enabling faster and more sustainable deployment of large language models and other DNNs at the edge and in data centers. Professionals can leverage this to optimize hardware-software co-design for next-generation AI accelerators.

How to implement this in your domain

  1. 1Evaluate ReRAM-based IMC solutions for deploying AI models, considering this finetuning approach.
  2. 2Integrate hardware-aware finetuning into existing AI model deployment pipelines for edge devices.
  3. 3Research the application of sinh transformations and regularization losses for mitigating hardware-specific errors in other computing paradigms.
  4. 4Collaborate with hardware engineers to design ReRAM architectures that are more amenable to such finetuning techniques.

Who benefits

SemiconductorEdge AICloud ComputingAutomotiveConsumer Electronics

Key takeaways

  • A finetuning method enables robust DNN deployment on ReRAM IMC.
  • It mitigates I-V non-linearity and retention errors effectively.
  • The approach significantly reduces training overhead compared to training from scratch.
  • It maintains high accuracy on large-scale models across various tasks.

Original post by Ching-Yi Lin, Shamik Kundu, Arnab Raha, Sahil Shah

"arXiv:2606.17471v1 Announce Type: new Abstract: Traditional CPU, GPU, and NPU architectures are increasingly limited by the von Neumann bottleneck. While In-Memory Computing (IMC) using ReRAM crossbar arrays offers a high-density, energy-efficient alternative, its practical deplo…"

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Originally posted by Ching-Yi Lin, Shamik Kundu, Arnab Raha, Sahil Shah on X · view source

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