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Network-based Drug Repurposing: A Critical Review
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Abstract:
New drug development for a disease is a tedious, time-consuming, complex, and expensive
process. Even if it is done, the chances for success of newly developed drugs are still very
low. Modern reports state that repurposing the pre-existing drugs will have more efficient functioning
than newly developed drugs. This repurposing process will save time, reduce expenses and
provide more success rate. The only limitation for this repurposing is getting a desired pharmacological
and characteristic parameter of various drugs from vast data about medications, their effects,
and target mechanisms. This drawback can be avoided by introducing computational methods
of analysis. This includes various network analysis types that use various biological processes
and relationships with various drugs to simplify data interpretation. Some of the data sets now
available in standard, and simplified forms include gene expression, drug-target interactions, protein
networks, electronic health records, clinical trial results, and drug adverse event reports. Integrating
various data sets and interpretation methods allows a more efficient and easy way to repurpose
an exact drug for the desired target and effect. In this review, we are going to discuss briefly
various computational biological network analysis methods like gene regulatory networks, metabolic
networks, protein-protein interaction networks, drug-target interaction networks, drugdisease
association networks, drug-drug interaction networks, drug-side effects networks, integrated
network-based methods, semantic link networks, and isoform-isoform networks. Along with
this, we briefly discussed the drug's limitations, prediction methodologies, and data sets utilised in
various biological networks for drug repurposing.
Bentham Science Publishers Ltd.
Title: Network-based Drug Repurposing: A Critical Review
Description:
Abstract:
New drug development for a disease is a tedious, time-consuming, complex, and expensive
process.
Even if it is done, the chances for success of newly developed drugs are still very
low.
Modern reports state that repurposing the pre-existing drugs will have more efficient functioning
than newly developed drugs.
This repurposing process will save time, reduce expenses and
provide more success rate.
The only limitation for this repurposing is getting a desired pharmacological
and characteristic parameter of various drugs from vast data about medications, their effects,
and target mechanisms.
This drawback can be avoided by introducing computational methods
of analysis.
This includes various network analysis types that use various biological processes
and relationships with various drugs to simplify data interpretation.
Some of the data sets now
available in standard, and simplified forms include gene expression, drug-target interactions, protein
networks, electronic health records, clinical trial results, and drug adverse event reports.
Integrating
various data sets and interpretation methods allows a more efficient and easy way to repurpose
an exact drug for the desired target and effect.
In this review, we are going to discuss briefly
various computational biological network analysis methods like gene regulatory networks, metabolic
networks, protein-protein interaction networks, drug-target interaction networks, drugdisease
association networks, drug-drug interaction networks, drug-side effects networks, integrated
network-based methods, semantic link networks, and isoform-isoform networks.
Along with
this, we briefly discussed the drug's limitations, prediction methodologies, and data sets utilised in
various biological networks for drug repurposing.
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