Prediction of protein-ligand complexes for flexible proteins remains still a challenging problem in computational structural biology and drug design. Here we present two novel deep neural network approaches with significant improvement in efficiency and accuracy of binding mode prediction on a large and diverse set of protein systems compared to standard docking. Whereas the first graph convolutional network is used for re-ranking poses the second approach aims to generate and rank poses independent of standard docking approaches. This novel approach relies on the prediction of distance matrices between ligand atoms and protein C_alpha atoms thus incorporating side-chain flexibility implicitly
Machine learning models are increasingly harnessed to expedite drug discovery by effectively predict...
We present a new algorithm for the fast and reliable structure prediction of synthetic receptor-lig...
We have shown previously that given high-resolution structures of the unbound molecules, structure d...
Prediction of protein-ligand interactions is a critical step during the initial phase of drug discov...
While a plethora of different protein–ligand docking protocols have been developed over the past twe...
The function of most biological systems is realized by the interaction of proteins with other biolog...
We herewith present a novel approach to predict protein–ligand binding modes from the single two-dim...
Protein-ligand binding prediction has extensive biological significance. Binding affinity helps in u...
This project aims at exploring the applicability of the Convolutional Neural Networks (CNN) for solv...
Interactions between proteins are directly involved in most biological processes and are essential f...
Computational approaches for identifying the protein–ligand binding affinity can greatly facilitate ...
Data driven computational approaches to predicting protein-ligand binding are currently achieving un...
Small molecule docking has proven to be invaluable for drug design and discovery. However, existing ...
Background: Protein-protein interactions are involved in most cellular processes, and their detailed...
Fast and accurate classification of ligand-binding sites in proteins with respect to the class of bi...
Machine learning models are increasingly harnessed to expedite drug discovery by effectively predict...
We present a new algorithm for the fast and reliable structure prediction of synthetic receptor-lig...
We have shown previously that given high-resolution structures of the unbound molecules, structure d...
Prediction of protein-ligand interactions is a critical step during the initial phase of drug discov...
While a plethora of different protein–ligand docking protocols have been developed over the past twe...
The function of most biological systems is realized by the interaction of proteins with other biolog...
We herewith present a novel approach to predict protein–ligand binding modes from the single two-dim...
Protein-ligand binding prediction has extensive biological significance. Binding affinity helps in u...
This project aims at exploring the applicability of the Convolutional Neural Networks (CNN) for solv...
Interactions between proteins are directly involved in most biological processes and are essential f...
Computational approaches for identifying the protein–ligand binding affinity can greatly facilitate ...
Data driven computational approaches to predicting protein-ligand binding are currently achieving un...
Small molecule docking has proven to be invaluable for drug design and discovery. However, existing ...
Background: Protein-protein interactions are involved in most cellular processes, and their detailed...
Fast and accurate classification of ligand-binding sites in proteins with respect to the class of bi...
Machine learning models are increasingly harnessed to expedite drug discovery by effectively predict...
We present a new algorithm for the fast and reliable structure prediction of synthetic receptor-lig...
We have shown previously that given high-resolution structures of the unbound molecules, structure d...