Identification of Protein–Protein Interaction Associated Functions Based on Gene Ontology

Protein–protein interactions (PPIs) involve the physical or functional contact between two or more proteins. Generally, proteins that can interact with each other always have special relationships. Some previous studies have reported that gene ontology (GO) terms are related to the determination of...

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Veröffentlicht in:The Protein Journal 2024-06, Vol.43 (3), p.477-486
Hauptverfasser: Zhang, Yu-Hang, Huang, FeiMing, Li, JiaBo, Shen, WenFeng, Chen, Lei, Feng, KaiYan, Huang, Tao, Cai, Yu-Dong
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container_issue 3
container_start_page 477
container_title The Protein Journal
container_volume 43
creator Zhang, Yu-Hang
Huang, FeiMing
Li, JiaBo
Shen, WenFeng
Chen, Lei
Feng, KaiYan
Huang, Tao
Cai, Yu-Dong
description Protein–protein interactions (PPIs) involve the physical or functional contact between two or more proteins. Generally, proteins that can interact with each other always have special relationships. Some previous studies have reported that gene ontology (GO) terms are related to the determination of PPIs, suggesting the special patterns on the GO terms of proteins in PPIs. In this study, we explored the special GO term patterns on human PPIs, trying to uncover the underlying functional mechanism of PPIs. The experimental validated human PPIs were retrieved from STRING database, which were termed as positive samples. Additionally, we randomly paired proteins occurring in positive samples, yielding lots of negative samples. A simple calculation was conducted to count the number of positive samples for each GO term pair, where proteins in samples were annotated by GO terms in the pair individually. The similar number for negative samples was also counted and further adjusted due to the great gap between the numbers of positive and negative samples. The difference of the above two numbers and the relative ratio compared with the number on positive samples were calculated. This ratio provided a precise evaluation of the occurrence of GO term pairs for positive samples and negative samples, indicating the latent GO term patterns for PPIs. Our analysis unveiled several nuclear biological processes, including gene transcription, cell proliferation, and nutrient metabolism, as key biological functions. Interactions between major proliferative or metabolic GO terms consistently correspond with significantly reported PPIs in recent literature.
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subjects Animal Anatomy
Biochemistry
Biological activity
Bioorganic Chemistry
Cell proliferation
Chemistry
Chemistry and Materials Science
Histology
Morphology
Ontology
Organic Chemistry
Protein interaction
Proteins
title Identification of Protein–Protein Interaction Associated Functions Based on Gene Ontology
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