anti-biofilm
anti-biofilm predicts the half maximal inhibitory concentration (IC50) activity of small molecules against microbial biofilms to identify potential anti-biofilm agents.
Key Features:
- Machine Learning Techniques (MLTs): Employs multiple machine learning algorithms including Support Vector Machine (SVM), with SVM achieving a Pearson's correlation coefficient of 0.75 on training and testing datasets.
- Data-Driven Training: Models are trained on experimentally validated anti-biofilm compounds with known IC50 values sourced from the aBiofilm resource and validated against an independent dataset.
- Chemical Diversity Analysis: Analyzes diverse chemical structures including furanone, urea, phenolic acids, and quinolines.
Scientific Applications:
- Drug Repurposing: Predicts IC50 activity of existing compounds to identify candidates for repurposing as anti-biofilm agents.
- Antimicrobial Resistance Research: Supports identification of molecules that can inhibit biofilms, addressing factors that contribute to antimicrobial resistance.
- Chemical Space Exploration: Enables exploration of structurally diverse chemical classes to discover novel anti-biofilm compounds.
Methodology:
Machine learning algorithms were trained on experimentally validated anti-biofilm compounds with known IC50 values from the aBiofilm resource, tested using training and testing datasets where SVM reached a Pearson's correlation coefficient of 0.75, and validated against an independent dataset while performing chemical-structure analyses of classes such as furanone, urea, phenolic acids, and quinolines.
Topics
Details
- Cost:
- Free of charge
- Tool Type:
- web application
- Operating Systems:
- Mac, Linux, Windows
- Added:
- 1/26/2024
- Last Updated:
- 11/24/2024
Operations
Publications
Rajput A, Bhamare KT, Thakur A, Kumar M. Anti-Biofilm: Machine Learning Assisted Prediction of IC50 Activity of Chemicals Against Biofilms of Microbes Causing Antimicrobial Resistance and Implications in Drug Repurposing. Journal of Molecular Biology. 2023;435(14):168115. doi:10.1016/j.jmb.2023.168115. PMID:37356913.