scFusionTTT: Single-cell transcriptomics and proteomics fusion with Test-Time Training layers

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Main Authors: Meng, Dian, Xing, Bohao, Huang, Xinlei, Liu, Yanran, Zhou, Yijun, xiao, Yongjun, Yu, Zitong, Zheng, Xubin
Format: Preprint
Published: 2024
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author Meng, Dian
Xing, Bohao
Huang, Xinlei
Liu, Yanran
Zhou, Yijun
xiao, Yongjun
Yu, Zitong
Zheng, Xubin
author_facet Meng, Dian
Xing, Bohao
Huang, Xinlei
Liu, Yanran
Zhou, Yijun
xiao, Yongjun
Yu, Zitong
Zheng, Xubin
contents Single-cell multi-omics (scMulti-omics) refers to the paired multimodal data, such as Cellular Indexing of Transcriptomes and Epitopes by Sequencing (CITE-seq), where the regulation of each cell was measured from different modalities, i.e. genes and proteins. scMulti-omics can reveal heterogeneity inside tumors and understand the distinct genetic properties of diverse cell types, which is crucial to targeted therapy. Currently, deep learning methods based on attention structures in the bioinformatics area face two challenges. The first challenge is the vast number of genes in a single cell. Traditional attention-based modules struggled to effectively leverage all gene information due to their limited capacity for long-context learning and high-complexity computing. The second challenge is that genes in the human genome are ordered and influence each other's expression. Most of the methods ignored this sequential information. The recently introduced Test-Time Training (TTT) layer is a novel sequence modeling approach, particularly suitable for handling long contexts like genomics data because TTT layer is a linear complexity sequence modeling structure and is better suited to data with sequential relationships. In this paper, we propose scFusionTTT, a novel method for Single-Cell multimodal omics Fusion with TTT-based masked autoencoder. Of note, we combine the order information of genes and proteins in the human genome with the TTT layer, fuse multimodal omics, and enhance unimodal omics analysis. Finally, the model employs a three-stage training strategy, which yielded the best performance across most metrics in four multimodal omics datasets and four unimodal omics datasets, demonstrating the superior performance of our model. The dataset and code will be available on https://github.com/DM0815/scFusionTTT.
format Preprint
id arxiv_https___arxiv_org_abs_2410_13257
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle scFusionTTT: Single-cell transcriptomics and proteomics fusion with Test-Time Training layers
Meng, Dian
Xing, Bohao
Huang, Xinlei
Liu, Yanran
Zhou, Yijun
xiao, Yongjun
Yu, Zitong
Zheng, Xubin
Machine Learning
Artificial Intelligence
Single-cell multi-omics (scMulti-omics) refers to the paired multimodal data, such as Cellular Indexing of Transcriptomes and Epitopes by Sequencing (CITE-seq), where the regulation of each cell was measured from different modalities, i.e. genes and proteins. scMulti-omics can reveal heterogeneity inside tumors and understand the distinct genetic properties of diverse cell types, which is crucial to targeted therapy. Currently, deep learning methods based on attention structures in the bioinformatics area face two challenges. The first challenge is the vast number of genes in a single cell. Traditional attention-based modules struggled to effectively leverage all gene information due to their limited capacity for long-context learning and high-complexity computing. The second challenge is that genes in the human genome are ordered and influence each other's expression. Most of the methods ignored this sequential information. The recently introduced Test-Time Training (TTT) layer is a novel sequence modeling approach, particularly suitable for handling long contexts like genomics data because TTT layer is a linear complexity sequence modeling structure and is better suited to data with sequential relationships. In this paper, we propose scFusionTTT, a novel method for Single-Cell multimodal omics Fusion with TTT-based masked autoencoder. Of note, we combine the order information of genes and proteins in the human genome with the TTT layer, fuse multimodal omics, and enhance unimodal omics analysis. Finally, the model employs a three-stage training strategy, which yielded the best performance across most metrics in four multimodal omics datasets and four unimodal omics datasets, demonstrating the superior performance of our model. The dataset and code will be available on https://github.com/DM0815/scFusionTTT.
title scFusionTTT: Single-cell transcriptomics and proteomics fusion with Test-Time Training layers
topic Machine Learning
Artificial Intelligence
url https://arxiv.org/abs/2410.13257