A multi-layer encoder prediction model for individual sample specific gene combination effect (MLEC-iGeneCombo)

Using data from gene combination double knockout (CDKO) experiments, top ranked synthetic lethal (SL) gene pairs were highly inconsistent among different SL scores. This leads to a significant concern that SL prediction models highly depend on SL scores. In this paper, we introduce a new gene combination effect (GCE) measurement, log-fold change of dual-gRNA expression before and after CRISPR-cas9 lentivirus transfection. We show it is a direct and highly consistent measurement of GCE in all CDKO experiments. We therefore develop a multi-layer encoder model for individual sample specific GCE prediction, MLEC-iGeneCombo. Under a deep learning framework, MLEC-iGeneCombo is a systems biology model that contains sample specific multi-omics encoder, network encoder and cell-line encoder. For the first time, MLEC-iGeneCombo predicts GCE for a new cell. Using data from 18 CDKO experiments, MLEC-iGeneCombo achieves an average GCE prediction performance, 71.9%. All three encoders significantly improve the model's prediction performance (p[Formula: see text]), and their combined use yields the best GCE prediction performance. Our source code is available at https://github.com/karenyun/MLEC-iGeneCombo.

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Publication Details

Journal
PLoS Computational Biology
Published
2025-10-03
DOI
https://doi.org/10.1371/journal.pcbi.1013547
Primary Topic
CRISPR and Genetic Engineering
Type
article
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article

A multi-layer encoder prediction model for individual sample specific gene combination effect (MLEC-iGeneCombo)

Birkan Gökbağ, Kunjie Fan, Lijun Cheng, Yang Chen et al.
PLoS Computational Biology
CRISPR and Genetic Engineering
article

A multi-layer encoder prediction model for individual sample specific gene combination effect (MLEC-iGeneCombo)

Birkan Gökbağ, Kunjie Fan, Lijun Cheng, Yang Chen, Lang Li, Nuo Sun, Yun Shen
article en

Abstract

Using data from gene combination double knockout (CDKO) experiments, top ranked synthetic lethal (SL) gene pairs were highly inconsistent among different SL scores. This leads to a significant concern that SL prediction models highly depend on SL scores. In this paper, we introduce a new gene combination effect (GCE) measurement, log-fold change of dual-gRNA expression before and after CRISPR-cas9 lentivirus transfection. We show it is a direct and highly consistent measurement of GCE in all CDKO experiments. We therefore develop a multi-layer encoder model for individual sample specific GCE prediction, MLEC-iGeneCombo. Under a deep learning framework, MLEC-iGeneCombo is a systems biology model that contains sample specific multi-omics encoder, network encoder and cell-line encoder. For the first time, MLEC-iGeneCombo predicts GCE for a new cell. Using data from 18 CDKO experiments, MLEC-iGeneCombo achieves an average GCE prediction performance, 71.9%. All three encoders significantly improve the model's prediction performance (p[Formula: see text]), and their combined use yields the best GCE prediction performance. Our source code is available at https://github.com/karenyun/MLEC-iGeneCombo.

PLoS Computational BiologyVol. 21(10)
The Ohio State University (US)
Openalex Percentile: Top 76%
CRISPR and Genetic Engineering
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A multi-layer encoder prediction model for individual sample specific gene combination effect (MLEC-iGeneCombo) — Birkan Gökbağ, Kunjie Fan, et al. · PLoS Computational Biology (2025) | TGRS Research Map | TGRS