RNAstructuresregulateawiderangeofprocessesinbiologyanddisease,yetsmallmoleculechemicalprobesordrugsthat can modulate these functions are rare. Machine learning and other computational methods are well poised to fill gaps in knowledgeandovercometheinherentchallengesinRNAtargeting,suchasthedynamicnatureofRNAandthedifficultyof obtainingRNAhigh-resolutionstructures.Successfultoolstodateincludeprincipalcomponentanalysis,lineardiscriminate analysis, k-nearest neighbor, artificial neural networks, multiple linear regression, and many others. Employment of these tools has revealed critical factors for selective recognition in RNA:small molecule complexes, predictable differences in RNA- and protein-binding ligands, and quantitative structure activity relationships that allow the rational design of small molecules for a given RNA target. Herein we present our perspective on the value of using machine learning and other computation methods to advance RNA:small molecule targeting, including select examples and their validation as well as necessary and promising future directions that will be key to accelerate discoveries in this important field.
Bagnolini, G., Luu, T.b., Hargrove, A.e. (2023). Recognizing the power of machine learning and other computational methods to accelerate progress in small molecule targeting of RNA. RNA, 29, 473-488.
Recognizing the power of machine learning and other computational methods to accelerate progress in small molecule targeting of RNA
Bagnolini GCo-primo
;
2023
Abstract
RNAstructuresregulateawiderangeofprocessesinbiologyanddisease,yetsmallmoleculechemicalprobesordrugsthat can modulate these functions are rare. Machine learning and other computational methods are well poised to fill gaps in knowledgeandovercometheinherentchallengesinRNAtargeting,suchasthedynamicnatureofRNAandthedifficultyof obtainingRNAhigh-resolutionstructures.Successfultoolstodateincludeprincipalcomponentanalysis,lineardiscriminate analysis, k-nearest neighbor, artificial neural networks, multiple linear regression, and many others. Employment of these tools has revealed critical factors for selective recognition in RNA:small molecule complexes, predictable differences in RNA- and protein-binding ligands, and quantitative structure activity relationships that allow the rational design of small molecules for a given RNA target. Herein we present our perspective on the value of using machine learning and other computation methods to advance RNA:small molecule targeting, including select examples and their validation as well as necessary and promising future directions that will be key to accelerate discoveries in this important field.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.


