Quantitative structure-activity relationship (QSAR) and design of novel ligands that demonstrate high potency and target selectivity as protein tyrosine phosphatase 1B (PTP 1B) inhibitors as an effective strategy used to model anti-diabetic agents.
David Ebuka ArthurStephen EjehAdamu UzairuPublished in: Journal of receptor and signal transduction research (2020)
Diabetes and obesity have increased dramatically in recent decades worldwide. Diabetes mainly emerged as a major health care burden disease in both the US and other industrialized countries, among which type II diabetes is the most common. Discovering new and effective treatments for diabetes is currently a high international health priority. In the present study a computational technique was used to model 97 compounds with PTP-1B inhibitory activity, in order to demonstrate the Quantitative structure-activity relationship (QSAR) of these compounds a genetic function approximation (GFA) algorithm was applied to pick the best descriptors and multiple linear regression (MLR) was used to establish a relationship between the PTP-1B inhibitory activity of these compounds and the best molecular descriptors. This QSAR study allowed investigating the influence of very simple and easy-to-compute descriptors in determining biological activities, which shed light on the key factors that aid in the design of novel potent molecules using computer-aided drug design tools.
Keyphrases
- structure activity relationship
- type diabetes
- cardiovascular disease
- healthcare
- glycemic control
- molecular docking
- molecular dynamics
- public health
- high resolution
- machine learning
- metabolic syndrome
- insulin resistance
- mental health
- weight loss
- deep learning
- physical activity
- adipose tissue
- small molecule
- emergency department
- drug induced
- risk factors
- gene expression
- social media
- climate change
- human health