This book presents five chapters, organised into two sections, on the latest developments in acrylate polymers materials in terms of properties, new ideas in design, synthesis and detailed applications. Section I presents three chapters on acrylate polymer properties and advanced applications such as pH dependence acrylate-derivative polyelectrolyte properties and polymer material classification as acrylic heat resistant glass and polycarbonate antiballistic glass. Section II includes two chapters on acrylic-based materials in the form of hydrogels, interpenetrated polymer networks, composites and nanocomposites for biomedical and bioengineering applications such as tissue engineering, antimicrobial therapy, orthopaedics and ophthalmologic devices.

Polymers for Pharmaceutical and Biomedical Applications: Fundamentals, Selection, and Preparation supports the successful selection, design, and development of polymers with the required properties and performance for a range of advanced pharmaceutical and biomedical applications. The book begins by introducing polymers for pharmaceutical and biomedical applications, examining classification, basic properties, structures, and grades. This is followed by in-depth chapters focusing on synthesis and modification, characterization techniques, and dissolution and solubility of polymers for pharmaceutical applications. Key applications are then highlighted, with chapters explaining in detail the preparation of polymers for conventional dosage, modified drug delivery, conjugates, advanced drug and gene delivery, medical devices, pharmaceutical packaging, tissue engineering, artificial organs, and dentistry. Throughout the book, the aim is to provide accessible, step-by-step coverage, supported by diagrams and case studies. Finally, safety and regulatory aspects are discussed. This is a valuable resource for all those who are newly approaching the field of polymers and product development for pharmaceutical and biomedical applications. This includes researchers and advanced students across polymer science, pharmaceutical science, biomaterials, biomedicine, healthcare, and chemistry, and scientists and R&D professionals in an industrial setting. Explains fundamental concepts relating to the synthesis, modification, and characterization of polymers Guides the reader towards successful selection of polymer systems for specific target applications Addresses key challenges in this field that are supported by case studies and regulatory information

Advanced Functional Polymers for Biomedical Applications presents novel techniques for the preparation and characterization of functionalized polymers, enabling researchers, scientists and engineers to understand and utilize their enhanced functionality in a range of cutting-edge biomedical applications. Provides systematic coverage of the major types of functional polymers, discussing their properties, preparation techniques and potential applications Presents new synthetic approaches alongside the very latest polymer processing and characterization methods Unlocks the potential of functional polymers to support ground-breaking techniques for drug and gene delivery, diagnostics, tissue engineering and regenerative medicine

Polymeric Nanosystems: Theranostic Nanosystems, Volume One examines the applications of nanotherapeutic systems and nanodiagnostics in relation to polymeric nanosystems. In the last decade, numerous biopolymers have been utilized to prepare polymeric nanosystems for therapeutic applications. These biopolymers include polylactic acid, polylactide-co-glycolide, polycaprolactone, acrylic polymers, cellulose and cellulose derivatives, alginates, chitosan, gellan gum, gelatin, albumin, chontroitin sulfate, hyaluronic acid, guar gum, gum Arabic, gum tragacanth, xanthan gum, and starches. Besides these biopolymers, grafted polymers are also being used as advanced polymeric materials to prepare many theranostic nanocarriers and nanoformulations. This book explores the array of polymeric nanosystems to understand therapeutic potentials. It will be useful to pharmaceutical scientists, including industrial pharmacists and analytical scientists, health care professionals, and regulatory scientists actively involved in the pharmaceutical product and process development of tailor-made polysaccharides in drug delivery applications. Contains in-depth discussions of the polymeric nanosystems including high-quality graphics, flowcharts, and graphs for enhanced understanding Reviews the literature on polymeric nanosystems while also suggesting new avenues Includes contributions in all areas of polymeric nanosystems, providing a thorough and interdisciplinary work

This book presents a review of preparation methods for environmentally friendly nanocomposite materials. It describes the combination of biodegradable and biocompatible polymer matrices with nanoparticles, leading to finished products preferably prepared by sustainable methods. The chapters also describe how the addition of synthetic or non-biodegradable particles can influence the properties of the final products. This book presents a general overview of the process from the preparation to the final applications of green nanocomposites. In addition, the book also details the trends, challenges, and prospects of this type of composites. The content can be divided into two sections. The first one presents a brief introduction about the importance of keeping the environment free of non-degradable pollutants. It also describes fundamentals, trends, and general applications of green materials. The second section focuses on the description of some of the green-based materials most used nowadays and other innovative materials, just like elastomers of natural origin. The book comprises the reintegration of these materials into the environment, followed by some biomedical, biological, and energy storage applications.

This book presents recent advances in the use of ionic liquids in medicine and pharmaceutics with particular emphasis on addressing critical pharmaceutical challenges, including the low solubility, polymorphism, and bioavailability of drugs. It also provides insights into the development of the biologically functionalized ionic liquids suitable for medical and pharmaceutical applications. Ionic liquids have been used as potential solvents or materials in the fields of pharmaceutical drug delivery and formulations because of their unique and tunable physicochemical and biological properties. Readers find explanations of the diverse approaches to the application of ionic liquids in drug solubility, active pharmaceutical ingredient (API) formulation, and drug delivery systems, such as topical, transdermal, and oral delivery, with particular emphasis on recent developments. Particular attention is given to the development of ionic liquid-assisted effective drug delivery techniques for sparingly soluble or insoluble drug molecules. This book also discusses the biological activities of ionic liquids for possible applications in drug formulation and drug delivery systems. Scientists in disciplines such as chemistry, biology, and pharmaceutics find this book instructive and informative for developing ionic liquid-based drug formulations or drug delivery systems.

Hydrogels are important polymer-based materials with innate fascinating properties and applications: they are three-dimensional, hydrophilic, polymeric networks that can absorb large amounts of water or aqueous fluids and are biocompatible, mechanically flexible, and soft. The incorporation of functionalities to develop smart and bioactive platforms has led to a myriad of applications. This book offers a comprehensive overview of multifunctional hydrogels, covering fundamentals, properties, and advanced applications in a progressive way. While each chapter can be read stand-alone, together they clearly describe the fundamental concepts of design, synthesis, and fabrication, as well as properties and performances of smart multifunctional hydrogels and their advanced applications in the biomedical, environmental, and robotics fields. This book: • Introduces readers to different hydrogel materials and the polymer types used to fabricate them. • Discusses conducting polymer hydrogels, nanocomposite hydrogels, and self-healing hydrogels. • Covers synthesis methodologies and fabrication techniques commonly used to confer certain structures and/or architectures. • Shows how hydrogels can be modified to incorporate new functionalities able to respond to physical and/or chemical changes. • Examines applications including bioelectronics, sensors and biosensors, tissue engineering, drug delivery, antipathogen applications, cancer theranostics, environmental applications, and soft robotics, with chapters showcasing the main advances achieved up to date in every field. Multifunctional Hydrogels: From Basic Concepts to Advanced Applications serves as a valuable resource for academic and industry researchers from interdisciplinary fields including materials science, chemistry, chemical engineering, bioengineering, physics, and pharmaceutical engineering.