Implications of Additivity and Nonadditivity for Machine Learning and Deep Learning Models in Drug Design
Karolina Kwapień, Eva Nittinger, Jiazhen He, Christian Margreitter, Alexey Voronov, Christian Tyrchan
Abstract
and solubility) to more complex cell-based ones (permeability and clearance), using different data sets and machine learning algorithms. Our study confirms that additive data are the easiest to predict, which highlights the importance of recognition of nonadditivity events and the challenging complexity of predicting properties in case of scaffold hopping. Despite deep learning being well suited to model nonlinear events, these methods do not seem to be an exception of this observation. Though they are in general performing better than classical machine learning methods, this leaves the field with a still standing challenge.
Topics & Concepts
PredictabilityArtificial intelligenceComputer scienceMachine learningDrug discoveryBiological systemAlgorithmMathematicsChemistryBiochemistryBiologyStatisticsComputational Drug Discovery MethodsMachine Learning in Materials ScienceProtein Structure and Dynamics