Advancing QSAR models in drug discovery for best practices, theoretical foundations, and applications in targeting nuclear factor-κB inhibitors- A bright future in pharmaceutical chemistry
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引用次数: 0
Abstract
Developing robust and valuable quantitative structure-activity relationship (QSAR) models has become increasingly significant in modern drug design. These models play a crucial role by enabling the determination of molecular properties of compounds and predicting their bioactivities for therapeutic targets. QSAR models utilize various machine learning methods, such as support vector machines (SVM), multiple linear regression (MLR), and artificial neural networks (ANNs). These widely applicable methods have substantial implications for developing more precise medicines. The effectiveness of QSAR research dramatically relies on how each process step is conducted and how the analysis is carried out. This paper discusses the essential steps in developing and validating QSAR models using machine learning. A case study is presented to provide a clear example, focusing on 121 compounds acting as potent nuclear factor-κB inhibitors (NF-κB). The study compares multiple predictive QSAR models based primarily on linear and non-linear regression techniques.
期刊介绍:
Chemometrics and Intelligent Laboratory Systems publishes original research papers, short communications, reviews, tutorials and Original Software Publications reporting on development of novel statistical, mathematical, or computer techniques in Chemistry and related disciplines.
Chemometrics is the chemical discipline that uses mathematical and statistical methods to design or select optimal procedures and experiments, and to provide maximum chemical information by analysing chemical data.
The journal deals with the following topics:
1) Development of new statistical, mathematical and chemometrical methods for Chemistry and related fields (Environmental Chemistry, Biochemistry, Toxicology, System Biology, -Omics, etc.)
2) Novel applications of chemometrics to all branches of Chemistry and related fields (typical domains of interest are: process data analysis, experimental design, data mining, signal processing, supervised modelling, decision making, robust statistics, mixture analysis, multivariate calibration etc.) Routine applications of established chemometrical techniques will not be considered.
3) Development of new software that provides novel tools or truly advances the use of chemometrical methods.
4) Well characterized data sets to test performance for the new methods and software.
The journal complies with International Committee of Medical Journal Editors'' Uniform requirements for manuscripts.