Abstract

BackgroundThe recent advances in human disease network have provided insights into establishing the relationships between the genotypes and phenotypes of diseases. In spite of the great progress, it yet remains as only a map of topologies between diseases, but not being able to be a pragmatic diagnostic/prognostic tool in medicine. It can further evolve from a map to a translational tool if it equips with a function of scoring that measures the likelihoods of the association between diseases. Then, a physician, when practicing on a patient, can suggest several diseases that are highly likely to co-occur with a primary disease according to the scores. In this study, we propose a method of implementing ‘n-of-1 utility’ (n potential diseases of one patient) to human disease network—the translational disease network.ResultsWe first construct a disease network by introducing the notion of walk in graph theory to protein-protein interaction network, and then provide a scoring algorithm quantifying the likelihoods of disease co-occurrence given a primary disease. Metabolic diseases, that are highly prevalent but have found only a few associations in previous studies, are chosen as entries of the network.ConclusionsThe proposed method substantially increased connectivity between metabolic diseases and provided scores of co-occurring diseases. The increase in connectivity turned the disease network info-richer. The result lifted the AUC of random guessing up to 0.72 and appeared to be concordant with the existing literatures on disease comorbidity.

Highlights

  • The recent advances in human disease network have provided insights into establishing the relationships between the genotypes and phenotypes of diseases

  • Data for constructing disease networks To construct a network of metabolic diseases, a list was obtained from The Medical Subject Headings (MeSH) in 2017

  • Based on Entrez gene and MeSH, we have curated all relational information related to metabolic diseases from multiple databases

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Summary

Introduction

The recent advances in human disease network have provided insights into establishing the relationships between the genotypes and phenotypes of diseases. In spite of the great progress, it yet remains as only a map of topologies between diseases, but not being able to be a pragmatic diagnostic/prognostic tool in medicine It can further evolve from a map to a translational tool if it equips with a function of scoring that measures the likelihoods of the association between diseases. Most diseases were grouped into several clusters; in particular, the cancer cluster is tightly interconnected owing to the many genes associated with multiple types of cancer.

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