Arpan Kumar Nayak – författare

Nanostructured Materials for Visible Light Photocatalysis describes the various methods of synthesizing different classes of nanostructured materials that are used as photocatalysts for the degradation of organic hazardous dyes under visible light irradiation. The first three chapters include a general introduction, basic principles, mechanisms, and synthesis methods of nanomaterials for visible light photocatalysis. Recent advances in carbon, bismuth series, transition metal oxide and chalcogenides-based nanostructured materials for visible light photocatalysis are discussed. Later chapters describe the role of phosphides, nitrides, and rare earth-based nanostructured-based materials in visible light photocatalysis, as well as the characteristics, synthesis, and fabrication of photocatalysts. The role of doping, composites, defects, different facets, morphology of nanostructured materials and green technology for efficient dye removal under visible-light irradiation are also explored. Other topics covered include large-scale production of nanostructured materials, the challenges in present photocatalytic research, the future scope of nanostructured materials regarding environmental hazard remediation under visible light, and solar light harvesting. This book is a valuable reference to researchers and enables them to learn more about designing advanced nanostructured materials for wastewater treatment and visible-light irradiation.

Covers all the recent developments of nanostructured photocatalytic materials Provides a clear overview of the mechanism of visible light photocatalysis and the controlled synthesis of nanostructured materials Assesses the major challenges of creating visible light photocatalysis systems at the nanoscale

Materials for Energy Storage offers a combinatorial understanding of materials science and electrochemistry in electrochemical energy storage devices with a holistic overview of the status, research gaps, and future opportunities. Rooted in a profound understanding of contemporary energy utilization, aligned with the sustainable development goals, this book delves deep into the several device chemistries, impact of nanomaterials, and critical factors related to the device performance. It discusses electrode-electrolyte interaction, device fabrication, and commercial aspects. This book will offer value to the graduate and postgraduate students, researchers, and industry professionals related to materials science and energy technology.

The application of clinical smart nanocarriers continues to be a fruitful and challenging field for both academic and clinical disciplines as well as industries. These clinically approved micro- and nanobased products have impacted treatment of numerous predominant diseases including cancer, diabetes, and different immune disorders. This Two-Volume Set presents a comprehensive overview of the most recent studies on smart micro- and nanomaterials with a focus on their smart activity for formation of targeted and responsive drug-delivery carriers and pharmaceutical applications. Covers the global market perspective of micro- and nano-smart materials in pharmaceutical industries.Discusses smart micro- and nanomaterials processing by polymers, metals, and other composites.Describes all possible stimulated systems for drug delivery.Details swellable polymers, multi-stimuli-responsive polymers, carbon nanotubes, quantum dots, and self-assembling peptide-based nanostructures.Explains various processing routes and mechanisms for target release.Addresses applications in oral drug delivery, anticancer agents, anti-tumor drug delivery, drugs for management of infection, and MEMS and diagnostics along with their future scope.This wide-ranging reference work is written to support researchers in the fields of materials engineering and biotechnology with the goal of improving the diagnosis and treatment of disease and patient quality of life.

Smart drug delivery at both the micro- and nanoscale is an evolving field with numerous potential applications. It has the potential to revolutionize drug therapy by making treatments more effective, reducing side effects, and improving patient outcomes.This book presents a comprehensive review of the most recent studies on smart micro- and nanomaterials with a focus on their “smart” activity for formation of targeted and responsive drug-delivery carriers. This volume:Introduces readers to the fundamentals of these the micro- and nanoscale materials as well as approaches to smart drug delivery and drug delivery systems.Covers polymers, metals, and composite materials as well as quantum dots and carbon nanotubes.Describes of all possible stimulated systems for drug delivery such as enzyme-responsive, small molecules-responsive, thermo-responsive, pH-responsive, electric field-responsive, magnetic field-responsive, light-responsive, ultrasound-responsive, and reductive environment responsive.Offers a critical perspective on the future scope of smart drug delivery systems.This reference work is written to support researchers in the fields of materials engineering and biotechnology with the goal of improving the diagnosis and treatment of disease and patient quality of life.

Smart drug delivery refers to a targeted drug delivery or precision drug delivery system that allows drugs to be administered to a specific location in the body or at a specific time with enhanced precision and control. This approach has several advantages, including maximizing the therapeutic effects of a drug while minimizing side effects.This book presents various stimuli-responsive micro- and nanomaterials for pharmaceutical industries. This volume:Covers the global market perspective of micro- and nano-smart materials in pharmaceutical industries.Details various processing routes.Discusses mechanisms for target release.Addresses applications in oral drug delivery, anticancer agents, anti-tumor drug delivery, and drugs for management of infection.This reference work is written to support researchers in the fields of materials engineering and biotechnology with the goal of improving the diagnosis and treatment of disease and patient quality of life.

Smart drug delivery refers to a targeted drug delivery or precision drug delivery system that allows drugs to be administered to a specific location in the body or at a specific time with enhanced precision and control. This approach has several advantages, including maximizing the therapeutic effects of a drug while minimizing side effects.This book presents various stimuli-responsive micro- and nanomaterials for pharmaceutical industries. This volume:Covers the global market perspective of micro- and nano-smart materials in pharmaceutical industries.Details various processing routes.Discusses mechanisms for target release.Addresses applications in oral drug delivery, anticancer agents, anti-tumor drug delivery, and drugs for management of infection.This reference work is written to support researchers in the fields of materials engineering and biotechnology with the goal of improving the diagnosis and treatment of disease and patient quality of life.

Materials for Energy Storage offers a combinatorial understanding of materials science and electrochemistry in electrochemical energy storage devices with a holistic overview of the status, research gaps, and future opportunities. Rooted in a profound understanding of contemporary energy utilization, aligned with the sustainable development goals, this book delves deep into the several device chemistries, impact of nanomaterials, and critical factors related to the device performance. It discusses electrode-electrolyte interaction, device fabrication, and commercial aspects. This book will offer value to the graduate and postgraduate students, researchers, and industry professionals related to materials science and energy technology.

Provides a state-of-the-art overview of the high-entropy materials driving next-generation energy storage and conversion technologies The development of high-entropy materials (HEMs) represents one of the most significant innovations in materials science for energy storage technologies. Traditional electrode and catalyst materials are constrained by performance, cost, and stability challenges, limiting the growth and reliability of renewable energy solutions. By contrast, HEMs—owing to their unique structural diversity, tunable composition, and robust stability—offer a paradigm-shifting pathway to advance batteries, capacitors, fuel cells, and hydrogen storage. High-Entropy Materials for Energy Storage Devices is the first comprehensive treatment of this field, bridging fundamental theory with device-oriented application. This authoritative volume introduces the conceptual foundations of high-entropy alloys and oxides, alongside emerging classes of perovskite-based, 2D-functional, metal-free, and morphology-dependent materials. Advanced synthesis and characterization methods are explained in detail, equipping researchers and engineers with the tools to tailor materials for electrochemical performance. Individual chapters address key topics such as electro-kinetics, surface chemistry, industrial perspectives, and future research challenges. Practical applications are emphasized through coverage of batteries, supercapacitors, and dielectric capacitors, supported by case studies that demonstrate the transformative role of HEMs in next-generation energy systems. Uniting fundamental principles with applied engineering perspectives to accelerate progress in addressing global energy storage needs, High-Entropy Materials for Energy Storage Devices: Provides detailed coverage of electro-kinetics and surface chemistry in high-entropy systemsIntegrates industrial perspectives, highlighting scalability, cost considerations, and commercialization potentialFeatures case studies linking material properties with real-world device performance outcomesExplores both noble metal-based and noble metal-free material systemsOffers comparative insights into alloys, oxides, and morphology-dependent high-entropy materialsDiscusses future challenges, emerging directions, and prospects for innovationHigh-Entropy Materials for Energy Storage Devices is an essential resource for graduate students, researchers, and professionals in materials science, electrochemistry, and chemical engineering. It is particularly suited for advanced courses on energy materials, electrochemical energy storage, and materials for renewable energy systems within M.Sc., Ph.D., and engineering degree programs.