In Silico Modelling and Simulation for Diabetes Therapy is an exploratory study positioned at the intersection of pharmacology, systems biology, and biomedical engineering. The book demonstrates how in silico approaches support a better understanding of diabetes pathophysiology, insulin kinetics, and drug–receptor interactions while reducing reliance on costly, time-intensive clinical trials.

The book begins with core concepts of in silico modelling before examining mechanisms of diabetes and existing care technologies, such as glucose monitoring systems, insulin pumps, artificial pancreas systems, and closed-loop control algorithms. It provides practical coverage of computational tools, including MATLAB, Simulink, COPASI, and Cell Designer, supported by case studies on insulin dosing, therapy optimisation, and data-driven modelling. Ethical, regulatory, and patient privacy considerations are discussed alongside emerging trends such as AI-driven modelling, virtual clinical trials, and personalised diabetes management.

Key Features:

Explains in silico modelling principles for diabetes research and therapy design

Provides integrated disease mechanisms, insulin kinetics, and drug–receptor interactions

Real-world case studies demonstrating the practical use of computational tools

Addresses regulatory, ethical, and data privacy considerations in digital health

Highlights future directions, including AI and personalised diabetes care

The Role of Nutraceuticals in Degenerative Diseases provides a comprehensive overview of the growing role of nutraceuticals in preventing and managing degenerative disorders. As awareness of dietary supplements as supportive therapy increases, this book examines how nutraceuticals can complement conventional treatments in slowing cellular degeneration and improving quality of life. The book systematically explains the causes, mechanisms, and therapeutic approaches of major degenerative diseases, including respiratory, neurodegenerative, cardiovascular, musculoskeletal, renal, hepatic, ophthalmic, and metabolic disorders. It covers both foundational concepts of nutraceuticals and disease pathology, along with disease-specific applications supported by mechanistic insights and emerging research. Topics such as in silico identification of nutraceuticals, biomarkers, and prevention strategies are also discussed, offering a balanced view of theory and practice. Key Features; -Explains fundamentals, scope, and identification of nutraceuticals -Describes mechanisms and progression of major degenerative diseases -Examines disease-specific nutraceutical interventions across organ systems -Integrates conventional therapy with dietary and preventive strategies -Highlights emerging research, biomarkers, and preventive approaches

With the global rise in use of herbal medicine alongside conventional drugs, understanding the interactions between them has become critical to ensuring therapeutic effectiveness and patient safety. Herb-Drug Interactions: A Medicinal Approach integrates traditional knowledge, modern pharmacology, and computational tools to provide a holistic perspective on herb-drug interactions. The book covers the historical evolution of herbal medicine, chemistry and mechanisms of herb-drug interactions, pharmacodynamics in metabolic diseases, and clinical implications. It also explores transport mechanisms, healthcare applications, and advanced computational approaches, including databases and bioinformatics tools. Special attention is given to vulnerable populations such as children, the elderly, and pregnant women, offering practical clinical insights. By combining mechanistic understanding with real-world applications, the book serves as both a reference and a guide for advancing safe, evidence-based integrative healthcare. Key Features - Integrates traditional herbal knowledge with modern pharmacology and computational approaches. - Explains mechanisms, pharmacodynamics, and clinical implications of herb-drug interactions. - Highlights therapeutic potential, drug-herb synergy, and safety considerations. - Focuses on vulnerable populations: paediatrics, geriatrics, and pregnancy. - Provides practical guidance for evidence-based integrative healthcare.

The Role of Nutraceuticals in Degenerative Diseases provides a comprehensive overview of the growing role of nutraceuticals in preventing and managing degenerative disorders. As awareness increases around dietary supplements as supportive therapy, this book examines how nutraceuticals can complement conventional treatments in slowing cellular degeneration and improving quality of life. The book systematically explains the causes, mechanisms, and therapeutic approaches of major degenerative diseases, including respiratory, neurodegenerative, cardiovascular, musculoskeletal, renal, hepatic, ophthalmic, and metabolic disorders. It covers both foundational concepts of nutraceuticals and disease pathology, along with disease-specific applications supported by mechanistic insights and emerging research. Topics such as in silico identification of nutraceuticals, biomarkers, and prevention strategies are also discussed, offering a balanced view of theory and practice. Key Features Explains fundamentals, scope, and identification of nutraceuticals Describes mechanisms and progression of major degenerative diseases Examines disease-specific nutraceutical interventions across organ systems Integrates conventional therapy with dietary and preventive strategies Highlights emerging research, biomarkers, and preventive approaches.

Brain Tumor Drug Development provides a clear, multidisciplinary update on modern therapies for glioblastoma and other aggressive brain tumors. The book focuses on improving drug precision, crossing the blood-brain barrier, identifying biomarkers, designing effective trials, and accelerating translation from research to real patient care. Key Features Discusses how to overcome the blood-brain barrier using advanced delivery methods Explains how to improve drug penetration and specificity with nano and polymer-based systems Explores new therapies through immunotherapy, gene therapy, and personalised medicine Outlines preclinical models and identifies biomarkers to support clinical success Details regulatory-aligned clinical trial strategies for faster translation

The Role of Asymmetric Synthesis in Drug Discovery presents a comprehensive overview of how enantioselective synthesis drives the development of safer, more effective therapeutics. Because the 3D arrangement of atoms profoundly affects a drug's activity, efficacy, and safety, asymmetric synthesis enables the precise production of single enantiomers-minimizing side effects and maximizing therapeutic performance. In the era of precision medicine, this selective control is indispensable for designing molecules that interact optimally with biological targets. Spanning ten chapters, the book highlights cutting-edge experimental research on the asymmetric synthesis of diverse bioactive heterocycles. Topics include foundational principles of enantioselective synthesis, chiral heterocycles, alkaloids, terpenoids, spirooxindoles, dihydropyrimidinones, piperazine derivatives, and asymmetric oxazines. Additional chapters explore chiral triazoles, benzimidazoles, and broader classes of chiral pharmaceuticals synthesized through asymmetric strategies. Together, these chapters illustrate both the scientific depth and therapeutic potential of modern asymmetric methodologies. The book serves as a forward-looking resource designed to inspire new research on chiral heterocycles and to support ongoing efforts in medicinal chemistry and drug design. Key Features: Explores core principles of enantioselective and asymmetric synthesis in drug discovery. Highlights synthetic strategies for diverse bioactive chiral heterocycles and natural products. Showcases experimental advancements in the synthesis of alkaloids, terpenoids, spirooxindoles, and more. Examines green, modern, and emerging approaches to asymmetric synthesis. Demonstrates therapeutic relevance through biological evaluations and pharmaceutical applications. Inspires future research on novel chiral scaffolds for drug development.