<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>

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

A comprehensive exploration of the role of natural and synthetic biopolymers in modern therapeutics. Bridging fundamental science with applied biomedical research, the book highlights how biopolymers function as drug carriers, vaccine adjuvants, bioactive agents, and innovative tools for next-generation treatment strategies. The volume covers specialized discussions on nano-based biopolymer systems, enzyme-triggered delivery platforms and AI-driven biopolymer design. The volume also examines the sources, chemistry, and properties of biopolymers while showcasing their applications in drug delivery, wound healing, cancer therapy, tissue engineering, and immunomodulation alongwith regulatory considerations,offering both foundational insights and forward-looking perspectives. Key Features: - Explores biological sources, chemistry, and synthetic pathways of biopolymers. - Examines applications in drug delivery, cancer therapy, and tissue engineering. - Highlights nano-biopolymers, stimuli-responsive systems, and immunomodulatory roles. - Showcases AI-powered innovations and emerging therapeutic strategies. - Bridges laboratory science with clinical and industrial translation.

Presenting an advanced exploration of next-generation Field-Effect Transistor (FET) technologies, Nano-FET Devices: Miniaturisation, Simulation, and Applications (Part 2) bridges the gap between nanoscale device fundamentals and innovative real-world applications. Spanning eighteen chapters, the book focuses on Tunnel FETs (TFETs), carbon-based FETs, and biosensor innovations, charting the shift from CMOS to TFET technologies while tackling key issues of performance, scalability, and reliability. It highlights advanced architectures such as HJ-DGV-TFETs, dual-pocket step-channel TFETs, and 2D material transistors, along with metasurface photonic devices, AlGaN/GaN HEMTs, CNT-FETs, and FET-based biosensors with applications in healthcare, digital systems, and optoelectronics. Key Features Integrates multidisciplinary insights across nanotechnology, photonics, RF engineering, and bioelectronics. Analyzes advanced FET architectures and their performance optimization through simulation and modeling. Explores the role of novel nanomaterials in biosensing, memory, and optoelectronic applications. Addresses design, fabrication, and scalability challenges in nano-FET development. Identifies emerging research trends driving innovation in semiconductor and nanoelectronic technologies.

Nanotechnology in Environmental Remediation: Perspectives and Prospects details the current and emerging roles of nanotechnology in restoring environmental quality across air, water, and soil systems. Integrating recent scientific advances with practical applications, the book explores the synthesis, characterization, and deployment of nanomaterials for environmental decontamination. Divided into five parts and sixteen chapters, the book covers a wide array of topics including carbon-based and biogenic nanomaterials, biochar nanocomposites, photocatalytic technologies, and green nanotechnology. It examines applications such as wastewater treatment, air purification, soil restoration, and remediation of persistent organic pollutants. In addition to technical insights, the book addresses sustainability, safety, toxicology, and the socio-economic dimensions of nanotechnology use in environmental systems. Key features Introduces readers to green synthesis and functionalization of nanomaterials Gives an understanding of how to evaluate nanotechnology applications in air, water, and soil remediation Covers photocatalytic and sensor-based innovations Covers toxicological and environmental safety concerns Highlights future trends and sustainable practices in bioremediation

This textbook provides an overview of next-generation Field-Effect Transistor (FET) technologies at the intersection of nanoelectronics, device miniaturization, and advanced applications. With a special emphasis on the evolution of semiconductor engineering, the book examines the shift from conventional CMOS to emerging FET architectures aimed at extending Moore &amp;#39; s Law. Across 18 chapters, the book explores Tunnel FETs (TFETs), carbon-based FETs, and 2D-material transistors, with discussions on performance, scalability, and reliability. It features detailed analyses of advanced device structures such as HJ-DGV-TFETs, dual-pocket step-channel TFETs, and AlGaN/GaN HEMTs, as well as their roles in memory, photonics, and biomedical systems. The use of nanomaterials in biosensor integration and digital circuit design is also a key theme. Key features: -Traces technological transitions from CMOS to novel FETs -Examines nanoengineered device architectures and materials -Investigates applications in optoelectronics, memory, and biosensing -Analyzes simulation approaches for performance optimization -Highlights interdisciplinary innovations across electronics and healthcare.

Synthesis, Application and Future Perspectives of Smart Nano-materials (Part 1) provides a comprehensive overview of the latest advancements in smart nanomaterials, their synthesis, and diverse applications. This book explores nanomaterials&#39; design, fabrication, and functionality, covering key areas such as catalysis, energy storage, environmental remediation, and biomedical applications. Topics include catalytic hydrogen evolution reactions, core-shell metal/carbon nanomaterials, carbon quantum dots, nanostructured metal oxides, and TiO₂ nanoparticles. It bridges fundamental concepts with real-world applications, fostering innovation in next-generation materials. Key Features: - Covers synthesis, characterization, and applications of smart nanomaterials. - Explores nanomaterials for catalysis, energy storage, and environmental applications. - Discusses advanced fabrication techniques and future technological prospects.

Nanomaterials, Metamaterials, and Smart Materials: Synthesis and Characterization explores the science and technology behind nanomaterials, metamaterials, and smart materials, focusing on their synthesis, characterization, and applications. It bridges fundamental concepts with cutting-edge research, covering material classification, size-dependent properties, fabrication challenges, and real-world applications in energy, healthcare, and electronics. Societal and ethical considerations are also discussed, providing a well-rounded perspective on material advancements. Key Features: - Comprehensive Coverage: Explores nanomaterials, metamaterials, and smart materials, from foundational principles to advanced applications. - Practical Learning Tools: Includes prerequisite concepts, video resources, and end-of-chapter problems for self-assessment. - Interdisciplinary Approach: Connects physics, chemistry, and engineering to real-world applications. - Extensive References: Provides citations for further exploration and deeper learning.