🔪 Elimination based Lightweight Neural Net with Pretrained Weights

Overview

ELimNet

ELimNet: Eliminating Layers in a Neural Network Pretrained with Large Dataset for Downstream Task

  • Removed top layers from pretrained EfficientNetB0 and ResNet18 to construct lightweight CNN model with less than 1M #params.
  • Assessed on Trash Annotations in Context(TACO) Dataset sampled for 6 classes with 20,851 images.
  • Compared performance with lightweight models generated with Optuna's Neural Architecture Search(NAS) constituted with same convolutional blocks.

Quickstart

Installation

# clone the repository
git clone https://github.com/snoop2head/elimnet

# fetch image dataset and unzip
!wget -cq https://aistages-prod-server-public.s3.amazonaws.com/app/Competitions/000081/data/data.zip
!unzip ./data.zip -d ./

Train

# finetune on the dataset with pretrained model
python train.py --model ./model/efficientnet_b0.yaml

# finetune on the dataset with ElimNet
python train.py --model ./model/efficientnet_b0_elim_3.yaml

Inference

# inference with the lastest ran model
python inference.py --model_dir ./exp/latest/

Performance

Performance is compared with (1) original pretrained model and (2) Optuna NAS constructed models with no pretrained weights.

  • Indicates that top convolutional layers eliminated pretrained CNN models outperforms empty Optuna NAS models generated with same convolutional blocks.
  • Suggests that eliminating top convolutional layers creates lightweight model that shows similar(or better) classifcation performance with original pretrained model.
  • Reduces parameters to 7%(or less) of its original parameters while maintaining(or improving) its performance. Saves inference time by 20% or more by eliminating top convolutional layters.

ELimNet vs Pretrained Models (Train)

[100 epochs] # of Parameters # of Layers Train Validation Test F1
Pretrained EfficientNet B0 4.0M 352 Loss: 0.43
Acc: 81.23%
F1: 0.84
Loss: 0.469
Acc: 82.17%
F1: 0.76
0.7493
EfficientNet B0 Elim 2 0.9M 245 Loss:0.652
Acc: 87.22%
F1: 0.84
Loss: 0.622
Acc: 87.22%
F1: 0.77
0.7603
EfficientNet B0 Elim 3 0.30M 181 Loss: 0.602
Acc: 78.17%
F1: 0.74
Loss: 0.661
Acc: 77.41%
F1: 0.74
0.7349
Resnet18 11.17M 69 Loss: 0.578
Acc: 78.90%
F1: 0.76
Loss: 0.700
Acc: 76.17%
F1: 0.719
-
Resnet18 Elim 2 0.68M 37 Loss: 0.447
Acc: 83.73%
F1: 0.71
Loss: 0.712
Acc: 75.42%
F1: 0.71
-

ELimNet vs Pretrained Models (Inference)

# of Parameters # of Layers CPU times (sec) CUDA time (sec) Test Inference Time (sec)
Pretrained EfficientNet B0 4.0M 352 3.9s 4.0s 105.7s
EfficientNet B0 Elim 2 0.9M 245 4.1s 13.0s 83.4s
EfficientNet B0 Elim 3 0.30M 181 3.0s 9.0s 73.5s
Resnet18 11.17M 69 - - -
Resnet18 Elim 2 0.68M 37 - - -

ELimNet vs Empty Optuna NAS Models (Train)

[100 epochs] # of Parameters # of Layers Train Valid Test F1
Empty MobileNet V3 4.2M 227 Loss 0.925
Acc: 65.18%
F1: 0.58
Loss 0.993
Acc: 62.83%
F1: 0.56
-
Empty EfficientNet B0 1.3M 352 Loss 0.867
Acc: 67.28%
F1: 0.61
Loss 0.898
Acc: 66.80%
F1: 0.61
0.6337
Empty DWConv & InvertedResidualv3 NAS 0.08M 66 - Loss: 0.766
Acc: 71.71%
F1: 0.68
0.6740
Empty MBConv NAS 0.33M 141 Loss: 0.786
Acc: 70.72%
F1: 0.66
Loss: 0.866
Acc: 68.09%
F1: 0.62
0.6245
Resnet18 Elim 2 0.68M 37 Loss: 0.447
Acc: 83.73%
F1: 0.71
Loss: 0.712
Acc: 75.42%
F1: 0.71
-
EfficientNet B0 Elim 3 0.30M 181 Loss: 0.602
Acc: 78.17%
F1: 0.74
Loss: 0.661
Acc: 77.41%
F1: 0.74
0.7603

ELimNet vs Empty Optuna NAS Models (Inference)

# of Parameters # of Layers CPU times (sec) CUDA time (sec) Test Inference Time (sec)
Empty MobileNet V3 4.2M 227 4 13 -
Empty EfficientNet B0 1.3M 352 3.780 3.782 68.4s
Empty DWConv &
InvertedResidualv3 NAS
0.08M 66 1 3.5 61.1s
Empty MBConv NAS 0.33M 141 2.14 7.201 67.1s
Resnet18 Elim 2 0.68M 37 - - -
EfficientNet B0 Elim 3 0.30M 181 3.0s 9s 73.5s

Background & WiP

Background

Work in Progress

  • Will test the performance of replacing convolutional blocks with pretrained weights with a single convolutional layer without pretrained weights.
  • Will add ResNet18's inference time data and compare with Optuna's NAS constructed lightweight model.
  • Will test on pretrained MobileNetV3, MnasNet on torchvision with elimination based lightweight model architecture search.
  • Will be applied on other small datasets such as Fashion MNIST dataset and Plant Village dataset.

Others

  • "Empty" stands for model with no pretrained weights.
  • "EfficientNet B0 Elim 2" means 2 convolutional blocks have been eliminated from pretrained EfficientNet B0. Number next to "Elim" annotates how many convolutional blocks have been removed.
  • Table's performance illustrates best performance out of 100 epochs of finetuning on TACO Dataset.

Authors

Owner
snoop2head
break, compose, display
snoop2head
Continuous Augmented Positional Embeddings (CAPE) implementation for PyTorch

PyTorch implementation of Continuous Augmented Positional Embeddings (CAPE), by Likhomanenko et al. Enhance your Transformer positional embeddings with easy-to-use augmentations!

Guillermo Cámbara 26 Dec 13, 2022
UniFormer - official implementation of UniFormer

UniFormer This repo is the official implementation of "Uniformer: Unified Transformer for Efficient Spatiotemporal Representation Learning". It curren

SenseTime X-Lab 573 Jan 04, 2023
Implementation of "Unsupervised Domain Adaptive 3D Detection with Multi-Level Consistency"

Unsupervised Domain Adaptive 3D Detection with Multi-Level Consistency (ICCV2021) Paper Link: https://arxiv.org/abs/2107.11355 This implementation bui

32 Nov 17, 2022
Posterior predictive distributions quantify uncertainties ignored by point estimates.

Posterior predictive distributions quantify uncertainties ignored by point estimates.

DeepMind 177 Dec 06, 2022
Audio Visual Emotion Recognition using TDA

Audio Visual Emotion Recognition using TDA RAVDESS database with two datasets analyzed: Video and Audio dataset: Audio-Dataset: https://www.kaggle.com

Combinatorial Image Analysis research group 3 May 11, 2022
Unified Interface for Constructing and Managing Workflows on different workflow engines, such as Argo Workflows, Tekton Pipelines, and Apache Airflow.

Couler What is Couler? Couler aims to provide a unified interface for constructing and managing workflows on different workflow engines, such as Argo

Couler Project 781 Jan 03, 2023
Repository For Programmers Seeking a platform to show their skills

Programming-Nerds Repository For Programmers Seeking Pull Requests In hacktoberfest ❓ What's Hacktoberfest 2021? Hacktoberfest is the easiest way to g

42 Oct 29, 2022
Implementation of the 😇 Attention layer from the paper, Scaling Local Self-Attention For Parameter Efficient Visual Backbones

HaloNet - Pytorch Implementation of the Attention layer from the paper, Scaling Local Self-Attention For Parameter Efficient Visual Backbones. This re

Phil Wang 189 Nov 22, 2022
Uncertainty Estimation via Response Scaling for Pseudo-mask Noise Mitigation in Weakly-supervised Semantic Segmentation

Uncertainty Estimation via Response Scaling for Pseudo-mask Noise Mitigation in Weakly-supervised Semantic Segmentation Introduction This is a PyTorch

XMed-Lab 30 Sep 23, 2022
The Simplest DCGAN Implementation

DCGAN in TensorLayer This is the TensorLayer implementation of Deep Convolutional Generative Adversarial Networks. Looking for Text to Image Synthesis

TensorLayer Community 310 Dec 13, 2022
PyTorch implementation of Deformable Convolution

PyTorch implementation of Deformable Convolution !!!Warning: There is some issues in this implementation and this repo is not maintained any more, ple

Wei Ouyang 893 Dec 18, 2022
ML model to classify between cats and dogs

Cats-and-dogs-classifier This is my first ML model which can classify between cats and dogs. Here the accuracy is around 75%, however , the accuracy c

Sharath V 4 Aug 20, 2021
Repository for the NeurIPS 2021 paper: "Exploiting Domain-Specific Features to Enhance Domain Generalization".

meta-Domain Specific-Domain Invariant (mDSDI) Source code implementation for the paper: Manh-Ha Bui, Toan Tran, Anh Tuan Tran, Dinh Phung. "Exploiting

VinAI Research 12 Nov 25, 2022
Official implementation of NeurIPS'21: Implicit SVD for Graph Representation Learning

isvd Official implementation of NeurIPS'21: Implicit SVD for Graph Representation Learning If you find this code useful, you may cite us as: @inprocee

Sami Abu-El-Haija 16 Jan 08, 2023
Source code of our BMVC 2021 paper: AniFormer: Data-driven 3D Animation with Transformer

AniFormer This is the PyTorch implementation of our BMVC 2021 paper AniFormer: Data-driven 3D Animation with Transformer. Haoyu Chen, Hao Tang, Nicu S

24 Nov 02, 2022
🌾 PASTIS 🌾 Panoptic Agricultural Satellite TIme Series

🌾 PASTIS 🌾 Panoptic Agricultural Satellite TIme Series (optical and radar) The PASTIS Dataset Dataset presentation PASTIS is a benchmark dataset for

86 Jan 04, 2023
Adabelief-Optimizer - Repository for NeurIPS 2020 Spotlight "AdaBelief Optimizer: Adapting stepsizes by the belief in observed gradients"

AdaBelief Optimizer NeurIPS 2020 Spotlight, trains fast as Adam, generalizes well as SGD, and is stable to train GANs. Release of package We have rele

Juntang Zhuang 998 Dec 29, 2022
Final term project for Bayesian Machine Learning Lecture (XAI-623)

Mixquality_AL Final Term Project For Bayesian Machine Learning Lecture (XAI-623) Youtube Link The presentation is given in YoutubeLink Problem Formula

JeongEun Park 3 Jan 18, 2022
Localized representation learning from Vision and Text (LoVT)

Localized Vision-Text Pre-Training Contrastive learning has proven effective for pre- training image models on unlabeled data and achieved great resul

Philip Müller 10 Dec 07, 2022
Codes for the ICCV'21 paper "FREE: Feature Refinement for Generalized Zero-Shot Learning"

FREE This repository contains the reference code for the paper "FREE: Feature Refinement for Generalized Zero-Shot Learning". [arXiv][Paper] 1. Prepar

Shiming Chen 28 Jul 29, 2022