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Research map / Architectures and efficiency / RNNs and normalization

Efficient Rematerialization for Deep Networks

NeurIPS 2019 · Architectures and efficiency › RNNs and normalization · approach: Efficient network compression and training · 21 citations (OpenAlex)

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Measured effects reported in the paper

What was changedWhereMeasuredEffect
use TWRemat instead of no rematerializationTransformer Base training graph · Transformer Basepeak memory (GiB): 3.97 -> 1.14Helped
use TWRemat instead of no rematerializationTransformer Big training graph · Transformer Bigpeak memory (GiB): 13.25 -> 2.89Helped
use TWRemat instead of GreedyRematTransformer Base · Transformer Basepeak memory (GiB): 2.92 -> 1.14Helped
use TWRemat instead of NoRematTransformer Base · Transformer Baserelative schedule length: 10.61Hurt
use TWRemat instead of NoRematResNet and feed-forward networks · depth sweeppeak memory: up to 10xHelped
use GreedyRemat instead of NoRematResNet models · ResNet depth sweeppeak memory: about 2xHelped
use GreedyRemat instead of NoRematfeed-forward network · FFN depth sweeppeak memoryNo clear effect
stop TWRemat recursion early (TWRemat(k) with larger k) (ablation)TWRemat · ResNet200peak memory vs schedule lengthMixed

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