ProXplore: A GPU-Enhanced Protein Discovery Engine

Language models have achieved unprecedented success in natural language processing tasks and have recently been adapted for biological sequences. However, GPUs still encounter significant performance bottlenecks when running BERT-style natural language models. Moreover, due to the vastly greater number of tokens in protein sequences compared to human languages (as illustrated in Figure 1), directly transferring language models from human languages to proteins results in significant changes in runtime behavior. Consequently, optimizations designed for short-input BERT models are less effective for protein language models.In this paper, we propose a novel GPU-based cross-layer optimization strategy. From an architectural perspective, our approach leverages intra- and inter-operator parallelism, multilevel data computation and warp parallelism to fully utilize GPU features. From an algorithmic perspective, we address the issue of varying lengths in protein input sequences and reduce memory overhead through padding removal. Experimental results demonstrate that ProXplore achieves a 1.8× increase in inference speed on the TAPE benchmark without a significant loss in prediction accuracy. This improvement effectively overcomes performance bottlenecks and provides substantial benefits for protein sequence analysis and other bioinformatics applications.

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Published
2024-12-03
DOI
https://doi.org/10.1109/bibm62325.2024.10822652
Primary Topic
Genetics, Bioinformatics, and Biomedical Research
Type
article
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article

ProXplore: A GPU-Enhanced Protein Discovery Engine

Peiheng Zhang, Xueqi Li, Zequn Sun, Xianchun Fu
Genetics, Bioinformatics, and Biomedical Research
article

ProXplore: A GPU-Enhanced Protein Discovery Engine

Peiheng Zhang, Xueqi Li, Zequn Sun, Xianchun Fu
article en

Abstract

Language models have achieved unprecedented success in natural language processing tasks and have recently been adapted for biological sequences. However, GPUs still encounter significant performance bottlenecks when running BERT-style natural language models. Moreover, due to the vastly greater number of tokens in protein sequences compared to human languages (as illustrated in Figure 1), directly transferring language models from human languages to proteins results in significant changes in runtime behavior. Consequently, optimizations designed for short-input BERT models are less effective for protein language models.In this paper, we propose a novel GPU-based cross-layer optimization strategy. From an architectural perspective, our approach leverages intra- and inter-operator parallelism, multilevel data computation and warp parallelism to fully utilize GPU features. From an algorithmic perspective, we address the issue of varying lengths in protein input sequences and reduce memory overhead through padding removal. Experimental results demonstrate that ProXplore achieves a 1.8× increase in inference speed on the TAPE benchmark without a significant loss in prediction accuracy. This improvement effectively overcomes performance bottlenecks and provides substantial benefits for protein sequence analysis and other bioinformatics applications.

Institute of Computing Technology (CN), University of Chinese Academy of Sciences (CN)
Openalex Percentile: Top 78%
Genetics, Bioinformatics, and Biomedical Research
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