Discovery through Machine Learning and Preclinical Validation of Novel Anti-Diabetic Peptides

While there have been significant advances in drug discovery for diabetes mellitus over the past couple of decades, there is an opportunity and need for improved therapies. While type 2 diabetic patients better manage their illness, many of the therapeutics in this area are peptide hormones with len...

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Main Authors: Rory Casey, Alessandro Adelfio, Martin Connolly, Audrey Wall, Ian Holyer, Nora Khaldi
Format: Article
Language:English
Published: MDPI AG 2021-03-01
Series:Biomedicines
Subjects:
Online Access:https://www.mdpi.com/2227-9059/9/3/276
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spelling doaj-fea7af06136c4f04aeed65da8f2123282021-03-10T00:06:54ZengMDPI AGBiomedicines2227-90592021-03-01927627610.3390/biomedicines9030276Discovery through Machine Learning and Preclinical Validation of Novel Anti-Diabetic PeptidesRory Casey0Alessandro Adelfio1Martin Connolly2Audrey Wall3Ian Holyer4Nora Khaldi5Nuritas Ltd., Joshua Dawson House, Dublin D02 RY95, IrelandNuritas Ltd., Joshua Dawson House, Dublin D02 RY95, IrelandNuritas Ltd., Joshua Dawson House, Dublin D02 RY95, IrelandNuritas Ltd., Joshua Dawson House, Dublin D02 RY95, IrelandNuritas Ltd., Joshua Dawson House, Dublin D02 RY95, IrelandNuritas Ltd., Joshua Dawson House, Dublin D02 RY95, IrelandWhile there have been significant advances in drug discovery for diabetes mellitus over the past couple of decades, there is an opportunity and need for improved therapies. While type 2 diabetic patients better manage their illness, many of the therapeutics in this area are peptide hormones with lengthy sequences and a molecular structure that makes them challenging and expensive to produce. Using machine learning, we present novel anti-diabetic peptides which are less than 16 amino acids in length, distinct from human signalling peptides. We validate the capacity of these peptides to stimulate glucose uptake and Glucose transporter type 4 (GLUT4) translocation in vitro. In obese insulin-resistant mice, predicted peptides significantly lower plasma glucose, reduce glycated haemoglobin and even improve hepatic steatosis when compared to treatments currently in use in a clinical setting. These unoptimised, linear peptides represent promising candidates for blood glucose regulation which require further evaluation. Further, this indicates that perhaps we have overlooked the class of natural short linear peptides, which usually come with an excellent safety profile, as therapeutic modalities.https://www.mdpi.com/2227-9059/9/3/276drug discoverypeptidetype 2 diabetesmachine learning
collection DOAJ
language English
format Article
sources DOAJ
author Rory Casey
Alessandro Adelfio
Martin Connolly
Audrey Wall
Ian Holyer
Nora Khaldi
spellingShingle Rory Casey
Alessandro Adelfio
Martin Connolly
Audrey Wall
Ian Holyer
Nora Khaldi
Discovery through Machine Learning and Preclinical Validation of Novel Anti-Diabetic Peptides
Biomedicines
drug discovery
peptide
type 2 diabetes
machine learning
author_facet Rory Casey
Alessandro Adelfio
Martin Connolly
Audrey Wall
Ian Holyer
Nora Khaldi
author_sort Rory Casey
title Discovery through Machine Learning and Preclinical Validation of Novel Anti-Diabetic Peptides
title_short Discovery through Machine Learning and Preclinical Validation of Novel Anti-Diabetic Peptides
title_full Discovery through Machine Learning and Preclinical Validation of Novel Anti-Diabetic Peptides
title_fullStr Discovery through Machine Learning and Preclinical Validation of Novel Anti-Diabetic Peptides
title_full_unstemmed Discovery through Machine Learning and Preclinical Validation of Novel Anti-Diabetic Peptides
title_sort discovery through machine learning and preclinical validation of novel anti-diabetic peptides
publisher MDPI AG
series Biomedicines
issn 2227-9059
publishDate 2021-03-01
description While there have been significant advances in drug discovery for diabetes mellitus over the past couple of decades, there is an opportunity and need for improved therapies. While type 2 diabetic patients better manage their illness, many of the therapeutics in this area are peptide hormones with lengthy sequences and a molecular structure that makes them challenging and expensive to produce. Using machine learning, we present novel anti-diabetic peptides which are less than 16 amino acids in length, distinct from human signalling peptides. We validate the capacity of these peptides to stimulate glucose uptake and Glucose transporter type 4 (GLUT4) translocation in vitro. In obese insulin-resistant mice, predicted peptides significantly lower plasma glucose, reduce glycated haemoglobin and even improve hepatic steatosis when compared to treatments currently in use in a clinical setting. These unoptimised, linear peptides represent promising candidates for blood glucose regulation which require further evaluation. Further, this indicates that perhaps we have overlooked the class of natural short linear peptides, which usually come with an excellent safety profile, as therapeutic modalities.
topic drug discovery
peptide
type 2 diabetes
machine learning
url https://www.mdpi.com/2227-9059/9/3/276
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