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Screening of drug candidates against Endothelin-1 to treat hypertension using computational based approaches:
Israr Fatima1, Hamza Ihsan2, Muhammad Shareef Masoud1
1Department of Bioinformatics & Biotechnology, Government College University Faisalabad-Pakistan, Faisalabad, Pakistan.
Insights
This study identifies novel phytochemical drug targets for hypertension by analyzing gene expression and protein interactions. It aims to develop safer antihypertensive drugs with fewer side effects.
Area of Science:
- Biochemistry
- Pharmacology
- Genetics
Background:
- Hypertension (HTN) is a significant global health issue, increasing the risk of cardiovascular and renal diseases.
- Overexpression of certain genes is linked to hypertension, and current treatments often have severe side effects.
- Existing antihypertensive drugs have limitations in efficacy and safety, necessitating the search for novel therapeutic agents.
Purpose of the Study:
- To identify potential drug targets by investigating overexpressed genes implicated in hypertension.
- To discover novel antihypertensive agents with improved therapeutic profiles and reduced side effects.
- To explore the role of gene expression in blood pressure regulation and hypertension pathophysiology.
Main Methods:
- Retrieved the protein structure of Endothelin-1, an overexpressed gene in hypertension, from the Protein Data Bank (PDB).
- Performed molecular docking of a library of 5,000 phytochemicals against the Endothelin-1 protein.
- Selected top four phytochemical candidates based on S score and Root Mean Square Deviation (RMSD) and conducted Absorption, Distribution, Metabolism, Excretion, and Toxicity (ADMET) profiling.
Main Results:
- Identified four promising phytochemical compounds as potential inhibitors of Endothelin-1.
- The selected compounds demonstrated favorable binding affinity and docking scores against the target protein.
- ADMET profiling provided initial insights into the pharmacokinetic and safety properties of the identified compounds.
Conclusions:
- The study identified novel drug-able targets and potential phytochemical leads for hypertension treatment.
- Findings enhance the understanding of gene expression's impact on blood pressure regulation.
- This research may pave the way for developing new antihypertensive drugs with better efficacy and safety profiles.
Abstract:
Hypertension (HTN) is a major risk factor for cardiovascular and renal diseases, cerebrovascular accidents (CVA) and a prime underlying cause of worldwide morbidity and mortality. Hypertension is a complex condition and a strong interplay of multiple genetic, epigenetic and environmental factors is involved in its etiology. Previous studies showed an association of overexpression of genes with hypertension. Satisfactory control of Blood Pressure (BP) levels is not achieved in a major portion of hypertensive patients who take antihypertensive drugs. Since existing antihypertensive drugs have many severe or irreversible side effects and give rise to further complications like frequent micturition and headaches, dizziness, dry irritating cough, hypoglycemia, GI hemorrhage, impaired left ventricular function, hyperkalemia, Anemia, angioedema and azotemia. There is a need to identify new antihypertensive agents that can inhibit the expression of these overexpressed genes contributing to hypertension. The study was designed to identify drug-able targets against overexpressed genes involved in hypertension to intervene the disease. The structure of the protein encoded by an overexpressed gene Endothelin-1 was retrieved from Protein Database (PDB). A library of five thousand phytochemicals was docked against Endothelin-1. The top four hits against Endothelin-1 protein were selected based on S score and Root Mean Square Deviation (RMSD). S score is a molecular docking score which is used to determine the preferred orientation, binding mode, site of the ligand and binding affinity. RMSD refines value for drug target identification. Absorption, distribution, metabolism, excretion, and toxicity profiling (ADMET) was done. The study provides novel insights into HTN etiology and improves our understanding of BP pathophysiology. These findings help to understand the impact of gene expression on BP regulation. This study might be helpful to develop an antihypertensive drug with a better therapeutic profile and least side effects.
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