Compare outputs between layers written in Tensorflow and layers written in Pytorch

Overview

Compare outputs of Wasserstein GANs between TensorFlow vs Pytorch

This is our testing module for the implementation of improved WGAN in Pytorch

Prerequisites

How to run

Go to test directory and run python test_compare_tf_to.py

How we do it

We inject the same weights init and inputs into layers of TensorFlow and Pytorch that we want to compare. For example, we set 5e-2 for the weights of Conv2d layer in both TensorFlow and Pytorch. Then we passed the same random input to those 2 layers and finally we compared 2 outputs from TensorFlow tensor and Pytorch tensor.

We use cosine to calculate the distance between 2 outputs. Reference: scipy.spatial.distance.cosine

What were compared between TensorFlow and Pytorch

We've compared the implementation of several layers in WGAN model. They are:

  • Depth to space
  • Conv2d
  • ConvMeanPool
  • MeanPoolConv
  • UpsampleConv
  • ResidualBlock (up)
  • ResidualBlock (down)
  • GoodGenerator
  • Discriminator
  • LayerNorm
  • BatchNorm
  • Gradient of Discriminator
  • Gradient of LayerNorm
  • Gradient of BatchNorm

Result

There are some weird results (cosine < 0 or the distance is bigger than defined threshold - 1 degree) and we look forward to your comments. Here are the outputs of the comparison.

b, c, h, w, in, out: 512, 12, 32, 32, 12, 4

-----------gen_data------------
True
tf.abs.mean: 0.500134
to.abs.mean: 0.500134
diff.mean: 0.0
cosine distance of gen_data: 0.0

-----------depth to space------------
True
tf.abs.mean: 0.500047
to.abs.mean: 0.500047
diff.mean: 0.0 cosine distance of depth to space: 0.0

-----------conv2d------------
True
tf.abs.mean: 2.5888
to.abs.mean: 2.5888
diff.mean: 3.56939e-07
cosine distance of conv2d: 5.96046447754e-08

-----------ConvMeanPool------------
True
tf.abs.mean: 2.58869
to.abs.mean: 2.58869
diff.mean: 2.93676e-07
cosine distance of ConvMeanPool: 0.0

-----------MeanPoolConv------------
True
tf.abs.mean: 2.48026
to.abs.mean: 2.48026
diff.mean: 3.42314e-07
cosine distance of MeanPoolConv: 0.0

-----------UpsampleConv------------
True
tf.abs.mean: 2.64478
to.abs.mean: 2.64478
diff.mean: 5.50668e-07
cosine distance of UpsampleConv: 0.0

-----------ResidualBlock_Up------------
True
tf.abs.mean: 1.01438
to.abs.mean: 1.01438
diff.mean: 5.99736e-07
cosine distance of ResidualBlock_Up: 0.0

-----------ResidualBlock_Down------------
False
tf.abs.mean: 2.38841
to.abs.mean: 2.38782
diff.mean: 0.192403
cosine distance of ResidualBlock_Down: 0.00430130958557

-----------Generator------------
True
tf.abs.mean: 0.183751
to.abs.mean: 0.183751
diff.mean: 9.97704e-07
cosine distance of Generator: 0.0

-----------D_input------------
True
tf.abs.mean: 0.500013
to.abs.mean: 0.500013
diff.mean: 0.0
cosine distance of D_input: 0.0

-----------Discriminator------------
True
tf.abs.mean: 295.795
to.abs.mean: 295.745
diff.mean: 0.0496472
cosine distance of Discriminator: 0.0

-----------GradOfDisc------------
GradOfDisc
tf: 315944.9375
to: 315801.09375
True
tf.abs.mean: 315945.0
to.abs.mean: 315801.0
diff.mean: 143.844
cosine distance of GradOfDisc: 0.0

-----------LayerNorm-Forward------------
True
tf.abs.mean: 0.865959
to.abs.mean: 0.865946
diff.mean: 1.3031e-05
cosine distance of LayerNorm-Forward: -2.38418579102e-07

-----------LayerNorm-Backward------------
False
tf.abs.mean: 8.67237e-10
to.abs.mean: 2.49221e-10
diff.mean: 6.18019e-10
cosine distance of LayerNorm-Backward: 0.000218987464905

-----------BatchNorm------------
True
tf.abs.mean: 0.865698
to.abs.mean: 0.865698
diff.mean: 1.13394e-07
cosine distance of BatchNorm: 0.0

-----------BatchNorm-Backward------------
True
tf.abs.mean: 8.66102e-10
to.abs.mean: 8.62539e-10
diff.mean: 3.56342e-12
cosine distance of BatchNorm-Backward: 4.17232513428e-07

Acknowledge

Owner
Hung Nguyen
Hung Nguyen
The official PyTorch implementation of recent paper - SAINT: Improved Neural Networks for Tabular Data via Row Attention and Contrastive Pre-Training

This repository is the official PyTorch implementation of SAINT. Find the paper on arxiv SAINT: Improved Neural Networks for Tabular Data via Row Atte

Gowthami Somepalli 284 Dec 21, 2022
A simple root calculater for python

Root A simple root calculater Usage/Examples python3 root.py 9 3 4 # Order: number - grid - number of decimals # Output: 2.08

Reza Hosseinzadeh 5 Feb 10, 2022
Use .csv files to record, play and evaluate motion capture data.

Purpose These scripts allow you to record mocap data to, and play from .csv files. This approach facilitates parsing of body movement data in statisti

21 Dec 12, 2022
Code for the paper "Adversarially Regularized Autoencoders (ICML 2018)" by Zhao, Kim, Zhang, Rush and LeCun

ARAE Code for the paper "Adversarially Regularized Autoencoders (ICML 2018)" by Zhao, Kim, Zhang, Rush and LeCun https://arxiv.org/abs/1706.04223 Disc

Junbo (Jake) Zhao 399 Jan 02, 2023
Traductor de lengua de señas al español basado en Python con Opencv y MedaiPipe

Traductor de señas Traductor de lengua de señas al español basado en Python con Opencv y MedaiPipe Requerimientos 🔧 Python 3.8 o inferior para evitar

Jahaziel Hernandez Hoyos 3 Nov 12, 2022
Dynamic Slimmable Network (CVPR 2021, Oral)

Dynamic Slimmable Network (DS-Net) This repository contains PyTorch code of our paper: Dynamic Slimmable Network (CVPR 2021 Oral). Architecture of DS-

Changlin Li 197 Dec 09, 2022
Interpolation-based reduced-order models

Interpolation-reduced-order-models Interpolation-based reduced-order models High-fidelity computational fluid dynamics (CFD) solutions are time consum

Donovan Blais 1 Jan 10, 2022
Training Certifiably Robust Neural Networks with Efficient Local Lipschitz Bounds (Local-Lip)

Training Certifiably Robust Neural Networks with Efficient Local Lipschitz Bounds (Local-Lip) Introduction TL;DR: We propose an efficient and trainabl

17 Dec 01, 2022
PaddleBoBo是基于PaddlePaddle和PaddleSpeech、PaddleGAN等开发套件的虚拟主播快速生成项目

PaddleBoBo - 元宇宙时代,你也可以动手做一个虚拟主播。 PaddleBoBo是基于飞桨PaddlePaddle深度学习框架和PaddleSpeech、PaddleGAN等开发套件的虚拟主播快速生成项目。PaddleBoBo致力于简单高效、可复用性强,只需要一张带人像的图片和一段文字,就能

502 Jan 08, 2023
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
Awesome Weak-Shot Learning

Awesome Weak-Shot Learning In weak-shot learning, all categories are split into non-overlapped base categories and novel categories, in which base cat

BCMI 162 Dec 30, 2022
Monocular Depth Estimation - Weighted-average prediction from multiple pre-trained depth estimation models

merged_depth runs (1) AdaBins, (2) DiverseDepth, (3) MiDaS, (4) SGDepth, and (5) Monodepth2, and calculates a weighted-average per-pixel absolute dept

Pranav 39 Nov 21, 2022
Implementation of GeoDiff: a Geometric Diffusion Model for Molecular Conformation Generation (ICLR 2022).

GeoDiff: a Geometric Diffusion Model for Molecular Conformation Generation [OpenReview] [arXiv] [Code] The official implementation of GeoDiff: A Geome

Minkai Xu 155 Dec 26, 2022
An Approach to Explore Logistic Regression Models

User-centered Regression An Approach to Explore Logistic Regression Models This tool applies the potential of Attribute-RadViz in identifying correlat

0 Nov 12, 2021
Deep Q Learning with OpenAI Gym and Pokemon Showdown

pokemon-deep-learning An openAI gym project for pokemon involving deep q learning. Made by myself, Sam Little, and Layton Webber. This code captures g

2 Dec 22, 2021
MultiTaskLearning - Multi Task Learning for 3D segmentation

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

2 Sep 22, 2022
Code/data of the paper "Hand-Object Contact Prediction via Motion-Based Pseudo-Labeling and Guided Progressive Label Correction" (BMVC2021)

Hand-Object Contact Prediction (BMVC2021) This repository contains the code and data for the paper "Hand-Object Contact Prediction via Motion-Based Ps

Takuma Yagi 13 Nov 07, 2022
Pytorch code for "Text-Independent Speaker Verification Using 3D Convolutional Neural Networks".

:speaker: Deep Learning & 3D Convolutional Neural Networks for Speaker Verification

Amirsina Torfi 114 Dec 18, 2022
Python package facilitating the use of Bayesian Deep Learning methods with Variational Inference for PyTorch

PyVarInf PyVarInf provides facilities to easily train your PyTorch neural network models using variational inference. Bayesian Deep Learning with Vari

342 Dec 02, 2022
Uses OpenCV and Python Code to detect a face on the screen

Simple-Face-Detection This code uses OpenCV and Python Code to detect a face on the screen. This serves as an example program. Important prerequisites

Denis Woolley (CreepyD) 1 Feb 12, 2022