The rise of deep learning and transformations in bioactivity prediction power of molecular modeling tools.
Mohammed Hussen BuleNafiseh JalalimaneshZahra BayramiMaryam BaeeriMohammad AbdollahiPublished in: Chemical biology & drug design (2021)
The search and design for the better use of bioactive compounds are used in many experiments to best mimic compounds' functions in the human body. However, finding a cost-effective and timesaving approach is a top priority in different disciplines. Nowadays, artificial intelligence (AI) and particularly deep learning (DL) methods are widely applied to improve the precision and accuracy of models used in the drug discovery process. DL approaches have been used to provide more opportunities for a faster, efficient, cost-effective, and reliable computer-aided drug discovery. Moreover, the increasing biomedical data volume in areas, like genome sequences, medical images, protein structures, etc., has made data mining algorithms very important in finding novel compounds that could be drugs, uncovering or repurposing drugs and improving the area of genetic markers-based personalized medicine. Furthermore, deep neural networks (DNNs) have been demonstrated to outperform other techniques such as random forests and SVMs for QSAR studies and ligand-based virtual screening. Despite this, in QSAR studies, the quality of different data sources and potential experimental errors has greatly affected the accuracy of QSAR predictions. Therefore, further researches are still needed to improve the accuracy, selectivity, and sensitivity of the DL approach in building the best models of drug discovery.
Keyphrases
- drug discovery
- deep learning
- artificial intelligence
- big data
- machine learning
- convolutional neural network
- molecular docking
- neural network
- electronic health record
- molecular dynamics
- endothelial cells
- healthcare
- climate change
- genome wide
- drinking water
- high resolution
- patient safety
- emergency department
- case control
- copy number
- mass spectrometry
- binding protein
- drug induced
- quality improvement
- genetic diversity
- pluripotent stem cells