An Overhead-Free Max-Pooling Method for SNN

被引:7
|
作者
Guo, Shasha [1 ]
Wang, Lei [1 ]
Chen, Baozi [1 ]
Dou, Qiang [1 ]
机构
[1] Natl Univ Def Technol, Coll Comp Sci & Technol, Changsha 410073, Peoples R China
基金
中国国家自然科学基金;
关键词
Neurons; Microsoft Windows; Mathematical model; Training; Computational modeling; Biological neural networks; Task analysis; Approximate; max pooling; overhead; spiking neural network (SNN);
D O I
10.1109/LES.2019.2919244
中图分类号
TP3 [计算技术、计算机技术];
学科分类号
0812 ;
摘要
Spiking neural networks (SNNs) have been shown to be accurate, fast, and efficient in classical machine vision tasks, such as object recognition or detection. It is typical to convert a pretrained deep neural network into an SNN since training SNN is not easy. The max-pooling (MP) function is widely adopted in most state-of-the-art deep neural networks. To maintain the accuracy of the SNN obtained through conversion, this function is an important element to be implemented. However, it is difficult due to the dynamic characteristics of spikes. As far as we know, existing solutions adopt additional technologies except the spiking neuron model to implement MP or approximate MP, which introduce overhead of memory storage and computation. In this letter, we propose a novel method that utilizes only the spiking neuron model to approximate MP. Our method does not incur any overhead. We validate our method with three datasets and six networks including three oxford visual geometry group-like networks. And the experimental results show that the performance (accuracy and convergence rate) of our method is as good as or even better than that of the existing method.
引用
收藏
页码:21 / 24
页数:4
相关论文
共 50 条
  • [41] Efficient Two-Stage Max-Pooling Engines for an FPGA-Based Convolutional Neural Network
    Hong, Eonpyo
    Choi, Kang-A
    Joo, Jhihoon
    ELECTRONICS, 2023, 12 (19)
  • [42] Area and Energy Efficient 2D Max-Pooling For Convolutional Neural Network Hardware Accelerator
    Zhao, Bin
    Chong, Yi Sheng
    Anh Tuan Do
    IECON 2020: THE 46TH ANNUAL CONFERENCE OF THE IEEE INDUSTRIAL ELECTRONICS SOCIETY, 2020, : 423 - 427
  • [43] Almost Overhead-Free Dynamic Sleep Window Adjusting Policy for Mobile Communication Systems
    Chuang, Yue-Ru
    Yang, Wen-Jeng
    Chiu, Te-Lun
    2015 IEEE INTERNATIONAL SYMPOSIUM ON CONSUMER ELECTRONICS (ISCE), 2015,
  • [44] Overhead-free polymorphism in network-on-chip implementation of object-oriented models
    Goudarzi, M
    Hessabi, S
    Mycroft, A
    DESIGN, AUTOMATION AND TEST IN EUROPE CONFERENCE AND EXHIBITION, VOLS 1 AND 2, PROCEEDINGS, 2004, : 1380 - 1381
  • [45] Overhead-free In-place Recovery Scheme for XOR-based Storage Codes
    Fu, Ximing
    Xiao, Zhiqing
    Yang, Shenghao
    2014 IEEE 13TH INTERNATIONAL CONFERENCE ON TRUST, SECURITY AND PRIVACY IN COMPUTING AND COMMUNICATIONS (TRUSTCOM), 2014, : 552 - 557
  • [46] Towards Overhead-Free Interface Theory for Compositional Hierarchical Real-Time Systems
    Kim, Jin Hyun
    Kim, Kyong Hoon
    Easwaran, Arvind
    Lee, Insup
    IEEE TRANSACTIONS ON COMPUTER-AIDED DESIGN OF INTEGRATED CIRCUITS AND SYSTEMS, 2018, 37 (11) : 2869 - 2880
  • [47] An overhead-free region-based JPEG framework for task-driven image compression
    Jeong, Seonghye
    Jeong, Seongmoon
    Woo, Simon S.
    Ko, Jong Hwan
    PATTERN RECOGNITION LETTERS, 2023, 165 : 1 - 8
  • [48] MC-Net: Multiple max-pooling integration module and cross multi-scale deconvolution network
    You, Hongfeng
    Yu, Long
    Tian, Shengwei
    Ma, Xiang
    Xing, Yan
    Xin, Ning
    Cai, Weiwei
    Knowledge-Based Systems, 2021, 231
  • [49] MC-Net: Multiple max-pooling integration module and cross multi-scale deconvolution network
    You, Hongfeng
    Yu, Long
    Tian, Shengwei
    Ma, Xiang
    Xing, Yan
    Xin, Ning
    Cai, Weiwei
    KNOWLEDGE-BASED SYSTEMS, 2021, 231
  • [50] The Winner-Take-All Mechanism for All-Optical Systems of Pattern Recognition and Max-Pooling Operation
    Zhang, Yahui
    Xiang, Shuiying
    Guo, Xingxing
    Wen, Aijun
    Hao, Yue
    JOURNAL OF LIGHTWAVE TECHNOLOGY, 2020, 38 (18) : 5071 - 5077