<p><b>Sustainable Composites for Future Trends in Renewable Energy</b>&nbsp;connects sustainability principles with high-performance composite design, highlighting eco-friendly synthesis, bio-based reinforcements, circular material models, and low-carbon energy applications across solar, wind, hydro, and bioenergy. Key chapters examine lightweight structural composites, biodegradable polymers, nanocomposites for energy storage, and life cycle assessment (LCA) methods increasingly used by the industry. The book positions sustainable composites as a core enabler in the global transition toward resilient and low-carbon energy systems<b>.</b></p><p><b><br></b></p><p><b>Key Features:</b></p><p>·&nbsp; Explains sustainable composite synthesis and manufacturing paths.</p><p>·&nbsp; Highlights bio-based and biodegradable reinforcement and polymer options.</p><p>·&nbsp; Demonstrates a lightweight, durable composite design for renewable energy systems.</p><p>·&nbsp; Explores nanocomposites for energy storage and barrier performance.</p><p>·&nbsp; Connects life cycle assessment insights to real industry adoption.</p><p>·&nbsp; Links circular material strategies to low-carbon economic goals.</p>

Frontiers in Computational Chemistry (Volume 8) offers a comprehensive overview of new advances in computational modeling techniques for drug discovery and development. This volume focuses on an overview of computer-aided drug design and therapy, molecular dynamics simulations and quantum mechanical calculations, while presenting some applications in computational chemistry. The edited chapters cover applications in the computational design of therapeutic peptides, protein-ligand interactions, anti-inflammatory drug design targeting the NLRP3 complex, and the study of photophysical processes. Each chapter provides theoretical explanations followed by experimental methods and current research updates.

Nanobiomedicine: Fundamentals and Implementation in Theranostic Applications explores how the fusion of nanotechnology, biotechnology, and medicine is transforming modern healthcare. Addressing the limitations of conventional diagnostics and therapies, the book explains how nanoparticles enable targeted drug delivery, improved imaging, and combined diagnostic-therapeutic (theranostic) applications, especially in cancer care. Chapters cover the fundamentals of nanomaterials, their use in photodynamic therapy, immunotherapy, and gene therapy, and their role in protecting and transporting drugs, DNA, and RNA. The book also highlights the growing impact of Artificial Intelligence, with applications in Alzheimer&amp;amp;amp;rsquo;s detection, AI-driven drug discovery, and ML/DL-based nanomedicine design. Key Features Explain nanoparticle-based drug and gene delivery for targeted treatment Demonstrate theranostic applications integrating diagnosis and therapy Highlight nanomedicine in cancer treatment to reduce damage to healthy cells Explore AI-assisted diagnostics and drug discovery for personalised healthcare Present emerging nanomaterial strategies for imaging, formulation, and acute therapy

Solid Base Catalysis: A New Frontier in Industrial Sustainability showcases the efficiency, reusability, and environmental benefits of solid based catalysts in modern green chemistry. Across ten chapters, the book presents advanced catalyst fabrication techniques, including sol-gel, hydrothermal, vapor deposition, and innovative waste-derived approaches paired with cutting-edge structural and spectroscopic characterization tools. The text highlights catalyst-enabled organic synthesis, biomass conversion, pharmaceutical intermediate production, heterocycle generation, and renewable energy applications, bridging foundational principles with industrial relevance. Detailed case studies on hydrogenation, multicomponent reactions, transesterification, depolymerization, bond-forming reactions, and CO₂ conversion to methanol connect academic research with industrial practice, positioning solid base catalysts as a cornerstone technology for sustainable chemistry, circular bioeconomy, and clean-energy innovation. Key Features Examines cutting-edge synthesis methods for solid base catalysts Analyzes material structure and functionality via advanced characterization techniques Demonstrates catalytic pathways for organic synthesis and fine chemicals manufacturing Enables biomass valorization and renewable feedstock conversion Facilitates hydrogenation, multicomponent, and C-C/C-N/C-S bond-forming reactions Advances CO₂ utilization, bio-oil upgrading, and sustainable fuel production Bridges fundamental catalysis principles with industrial case studies and real-world applications