Joint Channel and Weight Pruning for Model Acceleration on Mobile Devices

Related tags

Deep LearningJCW
Overview

Joint Channel and Weight Pruning for Model Acceleration on Mobile Devices

motivation

Abstract

For practical deep neural network design on mobile devices, it is essential to consider the constraints incurred by the computational resources and the inference latency in various applications. Among deep network acceleration related approaches, pruning is a widely adopted practice to balance the computational resource consumption and the accuracy, where unimportant connections can be removed either channel-wisely or randomly with a minimal impact on model accuracy. The channel pruning instantly results in a significant latency reduction, while the random weight pruning is more flexible to balance the latency and accuracy. In this paper, we present a unified framework with Joint Channel pruning and Weight pruning (JCW), and achieves a better Pareto-frontier between the latency and accuracy than previous model compression approaches. To fully optimize the trade-off between the latency and accuracy, we develop a tailored multi-objective evolutionary algorithm in the JCW framework, which enables one single search to obtain the optimal candidate architectures for various deployment requirements. Extensive experiments demonstrate that the JCW achieves a better trade-off between the latency and accuracy against various state-of-the-art pruning methods on the ImageNet classification dataset.

Framework

framework

Evaluation

Resnet18

Method Latency/ms Accuracy
Uniform 1x 537 69.8
DMCP 341 69.7
APS 363 70.3
JCW 160 69.2
194 69.7
196 69.9
224 70.2

MobileNetV1

Method Latency/ms Accuracy
Uniform 1x 167 70.9
Uniform 0.75x 102 68.4
Uniform 0.5x 53 64.4
AMC 94 70.7
Fast 61 68.4
AutoSlim 99 71.5
AutoSlim 55 67.9
USNet 102 69.5
USNet 53 64.2
JCW 31 69.1
39 69.9
43 69.8
54 70.3
69 71.4

MobileNetV2

Method Latency/ms Accuracy
Uniform 1x 114 71.8
Uniform 0.75x 71 69.8
Uniform 0.5x 41 65.4
APS 110 72.8
APS 64 69.0
DMCP 83 72.4
DMCP 45 67.0
DMCP 43 66.1
Fast 89 72.0
Fast 62 70.2
JCW 30 69.1
40 69.9
44 70.8
59 72.2

Requirements

  • torch
  • torchvision
  • numpy
  • scipy

Usage

The JCW works in a two-step fashion. i.e. the search step and the training step. The search step seaches for the layer-wise channel numbers and weight sparsity for Pareto-optimal models. The training steps trains the searched models with ADMM. We give a simple example for resnet18.

The search step

  1. Modify the configuration file

    First, open the file experiments/res18-search.yaml:

    vim experiments/res18-search.yaml

    Go to the 44th line and find the following codes:

    DATASET:
      data: ImageNet
      root: /path/to/imagenet
      ...
    

    and modify the root property of DATASET to the path of ImageNet dataset on your machine.

  2. Apply the search

    After modifying the configuration file, you can simply start the search by:

    python emo_search.py --config experiments/res18-search.yaml | tee experiments/res18-search.log

    After searching, the search results will be saved in experiments/search.pth

The training step

After searching, we can train the searched models by:

  1. Modify the base configuration file

    Open the file experiments/res18-train.yaml:

    vim experiments/res18-train.yaml

    Go to the 5th line, find the following codes:

    root: &root /path/to/imagenet
    

    and modify the root property to the path of ImageNet dataset on your machine.

  2. Generate configuration files for training

    After modifying the base configuration file, we are ready to generate the configuration files for training. To do that, simply run the following command:

    python scripts/generate_training_configs.py --base-config experiments/res18-train.yaml --search-result experiments/search.pth --output ./train-configs 

    After running the above command, the training configuration files will be written into ./train-configs/model-{id}/train.yaml.

  3. Apply the training

    After generating the configuration files, simply run the following command to train one certain model:

    python train.py --config xxxx/xxx/train.yaml | tee xxx/xxx/train.log
NDE: Climate Modeling with Neural Diffusion Equation, ICDM'21

Climate Modeling with Neural Diffusion Equation Introduction This is the repository of our accepted ICDM 2021 paper "Climate Modeling with Neural Diff

Jeehyun Hwang 5 Dec 18, 2022
DeepHyper: Scalable Asynchronous Neural Architecture and Hyperparameter Search for Deep Neural Networks

What is DeepHyper? DeepHyper is a software package that uses learning, optimization, and parallel computing to automate the design and development of

DeepHyper Team 214 Jan 08, 2023
A Pytorch Implementation of [Source data‐free domain adaptation of object detector through domain

A Pytorch Implementation of Source data‐free domain adaptation of object detector through domain‐specific perturbation Please follow Faster R-CNN and

1 Dec 25, 2021
The tl;dr on a few notable transformer/language model papers + other papers (alignment, memorization, etc).

The tl;dr on a few notable transformer/language model papers + other papers (alignment, memorization, etc).

Will Thompson 166 Jan 04, 2023
PRTR: Pose Recognition with Cascade Transformers

PRTR: Pose Recognition with Cascade Transformers Introduction This repository is the official implementation for Pose Recognition with Cascade Transfo

mlpc-ucsd 133 Dec 30, 2022
Source code for "MusCaps: Generating Captions for Music Audio" (IJCNN 2021)

MusCaps: Generating Captions for Music Audio Ilaria Manco1 2, Emmanouil Benetos1, Elio Quinton2, Gyorgy Fazekas1 1 Queen Mary University of London, 2

Ilaria Manco 57 Dec 07, 2022
Official Repository of NeurIPS2021 paper: PTR

PTR: A Benchmark for Part-based Conceptual, Relational, and Physical Reasoning Figure 1. Dataset Overview. Introduction A critical aspect of human vis

Yining Hong 32 Jun 02, 2022
Official repository for "Restormer: Efficient Transformer for High-Resolution Image Restoration". SOTA for motion deblurring, image deraining, denoising (Gaussian/real data), and defocus deblurring.

Restormer: Efficient Transformer for High-Resolution Image Restoration Syed Waqas Zamir, Aditya Arora, Salman Khan, Munawar Hayat, Fahad Shahbaz Khan,

Syed Waqas Zamir 906 Dec 30, 2022
OpenMMLab Computer Vision Foundation

English | 简体中文 Introduction MMCV is a foundational library for computer vision research and supports many research projects as below: MMCV: OpenMMLab

OpenMMLab 4.6k Jan 09, 2023
Code for "Learning Canonical Representations for Scene Graph to Image Generation", Herzig & Bar et al., ECCV2020

Learning Canonical Representations for Scene Graph to Image Generation (ECCV 2020) Roei Herzig*, Amir Bar*, Huijuan Xu, Gal Chechik, Trevor Darrell, A

roei_herzig 24 Jul 07, 2022
MultiTaskLearning - Multi Task Learning for 3D segmentation

Multi Task Learning for 3D segmentation Perception stack of an Autonomous Drivin

2 Sep 22, 2022
Cache Requests in Deta Bases and Echo them with Deta Micros

Deta Echo Cache Leverage the awesome Deta Micros and Deta Base to cache requests and echo them as needed. Stop worrying about slow public APIs or agre

Gingerbreadfork 8 Dec 07, 2021
Speech recognition tool to convert audio to text transcripts, for Linux and Raspberry Pi.

Spchcat Speech recognition tool to convert audio to text transcripts, for Linux and Raspberry Pi. Description spchcat is a command-line tool that read

Pete Warden 279 Jan 03, 2023
Github project for Attention-guided Temporal Coherent Video Object Matting.

Attention-guided Temporal Coherent Video Object Matting This is the Github project for our paper Attention-guided Temporal Coherent Video Object Matti

71 Dec 19, 2022
exponential adaptive pooling for PyTorch

AdaPool: Exponential Adaptive Pooling for Information-Retaining Downsampling Abstract Pooling layers are essential building blocks of Convolutional Ne

Alexandros Stergiou 55 Jan 04, 2023
NaturalProofs: Mathematical Theorem Proving in Natural Language

NaturalProofs: Mathematical Theorem Proving in Natural Language NaturalProofs: Mathematical Theorem Proving in Natural Language Sean Welleck, Jiacheng

Sean Welleck 83 Jan 05, 2023
PyTorch implementation of the paper:A Convolutional Approach to Melody Line Identification in Symbolic Scores.

Symbolic Melody Identification This repository is an unofficial PyTorch implementation of the paper:A Convolutional Approach to Melody Line Identifica

Sophia Y. Chou 3 Feb 21, 2022
STEM: An approach to Multi-source Domain Adaptation with Guarantees

STEM: An approach to Multi-source Domain Adaptation with Guarantees Introduction This is the official implementation of ``STEM: An approach to Multi-s

5 Dec 19, 2022
This package is for running the semantic SLAM algorithm using extracted planar surfaces from the received detection

Semantic SLAM This package can perform optimization of pose estimated from VO/VIO methods which tend to drift over time. It uses planar surfaces extra

Hriday Bavle 125 Dec 02, 2022