Implementing SYNTHESIZER: Rethinking Self-Attention in Transformer Models using Pytorch

Overview

Implementing SYNTHESIZER: Rethinking Self-Attention in Transformer Models using Pytorch

Reference

  • Paper URL

  • Author: Yi Tay, Dara Bahri, Donald Metzler, Da-Cheng Juan, Zhe Zhao, Che Zheng

  • Google Research

Method

model

1. Dense Synthesizer

2. Fixed Random Synthesizer

3. Random Synthesizer

4. Factorized Dense Synthesizer

5. Factorized Random Synthesizer

6. Mixture of Synthesizers

Usage

import torch

from synthesizer import Transformer, SynthesizerDense, SynthesizerRandom, FactorizedSynthesizerDense, FactorizedSynthesizerRandom, MixtureSynthesizers, get_n_params, calculate_flops


def main():
    batch_size, channel_dim, sentence_length = 2, 1024, 32
    x = torch.randn([batch_size, sentence_length, channel_dim])

    vanilla = Transformer(channel_dim)
    out, attention_map = vanilla(x)
    print(out.size(), attention_map.size())
    n_params, flops = get_n_params(vanilla), calculate_flops(vanilla.children())
    print('vanilla, n_params: {}, flops: {}'.format(n_params, flops))

    dense_synthesizer = SynthesizerDense(channel_dim, sentence_length)
    out, attention_map = dense_synthesizer(x)
    print(out.size(), attention_map.size())
    n_params, flops = get_n_params(dense_synthesizer), calculate_flops(dense_synthesizer.children())
    print('dense_synthesizer, n_params: {}, flops: {}'.format(n_params, flops))

    random_synthesizer = SynthesizerRandom(channel_dim, sentence_length)
    out, attention_map = random_synthesizer(x)
    print(out.size(), attention_map.size())
    n_params, flops = get_n_params(random_synthesizer), calculate_flops(random_synthesizer.children())
    print('random_synthesizer, n_params: {}, flops: {}'.format(n_params, flops))

    random_synthesizer_fix = SynthesizerRandom(channel_dim, sentence_length, fixed=True)
    out, attention_map = random_synthesizer_fix(x)
    print(out.size(), attention_map.size())
    n_params, flops = get_n_params(random_synthesizer_fix), calculate_flops(random_synthesizer_fix.children())
    print('random_synthesizer_fix, n_params: {}, flops: {}'.format(n_params, flops))

    factorized_synthesizer_random = FactorizedSynthesizerRandom(channel_dim)
    out, attention_map = factorized_synthesizer_random(x)
    print(out.size(), attention_map.size())
    n_params, flops = get_n_params(factorized_synthesizer_random), calculate_flops(
        factorized_synthesizer_random.children())
    print('factorized_synthesizer_random, n_params: {}, flops: {}'.format(n_params, flops))

    factorized_synthesizer_dense = FactorizedSynthesizerDense(channel_dim, sentence_length)
    out, attention_map = factorized_synthesizer_dense(x)
    print(out.size(), attention_map.size())
    n_params, flops = get_n_params(factorized_synthesizer_dense), calculate_flops(
        factorized_synthesizer_dense.children())
    print('factorized_synthesizer_dense, n_params: {}, flops: {}'.format(n_params, flops))

    mixture_synthesizer = MixtureSynthesizers(channel_dim, sentence_length)
    out, attention_map = mixture_synthesizer(x)
    print(out.size(), attention_map.size())
    n_params, flops = get_n_params(mixture_synthesizer), calculate_flops(mixture_synthesizer.children())
    print('mixture_synthesizer, n_params: {}, flops: {}'.format(n_params, flops))


if __name__ == '__main__':
    main()

Output

torch.Size([2, 32, 1024]) torch.Size([2, 32, 32])
vanilla, n_params: 3148800, flops: 3145729
torch.Size([2, 32, 1024]) torch.Size([2, 32, 32])
dense_synthesizer, n_params: 1083456, flops: 1082370
torch.Size([2, 32, 1024]) torch.Size([1, 32, 32])
random_synthesizer, n_params: 1050624, flops: 1048577
torch.Size([2, 32, 1024]) torch.Size([1, 32, 32])
random_synthesizer_fix, n_params: 1050624, flops: 1048577
torch.Size([2, 32, 1024]) torch.Size([2, 32, 32])
factorized_synthesizer_random, n_params: 1066000, flops: 1064961
torch.Size([2, 32, 1024]) torch.Size([2, 32, 32])
factorized_synthesizer_dense, n_params: 1061900, flops: 1060865
torch.Size([2, 32, 1024]) torch.Size([2, 32, 32])
mixture_synthesizer, n_params: 3149824, flops: 3145729

Paper Performance

eval

Owner
Myeongjun Kim
Computer Vision Research using Deep Learning
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