Skip to content
Proyectos

taki0112/SENet-Tensorflow

Ver en GitHub

taki0112/SENet-Tensorflow has 754 GitHub stars and 265 forks. GitHot measured 0 stars in 24 hours. Last checked 2026-11-15 11:16 UTC. Last push 2018-08-14.

Cómo se miden estas cifras

Crecimiento de estrellas medido

in 24h
0
in 7 days
Recopilando historial
in 15 days
Recopilando historial
in 1 month
Recopilando historial

Cambios netos en períodos que se solapan, no totales diarios. Los datos no disponibles se dejan en blanco. Las estrellas indican interés, no calidad.

Acerca de

Simple Tensorflow implementation of "Squeeze and Excitation Networks" using Cifar10 (ResNeXt, Inception-v4, Inception-resnet-v2)

Aprendizaje automático

README.md

Original

SENet-Tensorflow

Simple Tensorflow implementation of Squeeze Excitation Networks using Cifar10

I implemented the following SENet

If you want to see the original author's code, please refer to this link

Requirements

  • Tensorflow 1.x
  • Python 3.x
  • tflearn (If you are easy to use global average pooling, you should install tflearn)

Issue

Image_size

  • In paper, experimented with ImageNet
  • However, due to image size issues in Inception network, so I used zero padding for the Cifar10
input_x = tf.pad(input_x, [[0, 0], [32, 32], [32, 32], [0, 0]]) # size 32x32 -> 96x96

NOT ENOUGH GPU Memory

  • If not enough GPU memory, Please edit the code
with tf.Session() as sess : NO
with tf.Session(config=tf.ConfigProto(allow_soft_placement=True)) as sess : OK

Idea

What is the "SE block" ?

senet

def Squeeze_excitation_layer(self, input_x, out_dim, ratio, layer_name):
    with tf.name_scope(layer_name) :
        squeeze = Global_Average_Pooling(input_x)

        excitation = Fully_connected(squeeze, units=out_dim / ratio, layer_name=layer_name+'_fully_connected1')
        excitation = Relu(excitation)
        excitation = Fully_connected(excitation, units=out_dim, layer_name=layer_name+'_fully_connected2')
        excitation = Sigmoid(excitation)

        excitation = tf.reshape(excitation, [-1,1,1,out_dim])

        scale = input_x * excitation

        return scale

How apply ? (Inception, Residual)

 

How "Reduction ratio" should I set?

reduction

  • original refers to ResNet-50

ImageNet Results

Benefits against Network Depth

depth

Incorporation with Modern Architecture

incorporation

Comparison with State-of-the-art

compare

Cifar10 Results

Will be soon

Related works

Reference

Author

Junho Kim