Plasmonic Engineered Biomimetic And Bio Enabled Nanohybrids

Nature demonstrates the most complex and sophisticated engineering models that inspired the mankind throughout the history. Learning from nature and applying nature's engineering principles to materials science and engineering can not only promise sustainable solutions for environmental and public health but also offer revolutionary advances in the design and engineering of modern materials. Rich molecular machinery of nature including proteins, peptides, and nucleic acids working at the nanoscale, possess chemical complementarity, molecular specificity and selectivity. On the other hand, inorganic nanomaterials synthesized under laboratory conditions often lack such sophisticated structure, function and exquisite order at the mesoscale, which forms the bottleneck for the technological implication of nanomaterials. Merging molecular biology with the field of nanotechnology through engineering specific and selective recognition of inorganic surfaces by short peptides promise both the bio and nano components working synergistically at the nanoscale. In this work, we provided experimental insight into fundamental interfacial molecular interactions for rational integration of biological and /or biomimetic recognition elements with plasmonic nanostructures that exhibit unique optical properties using atomic force microscopy. These observations could provide new insight into engineering bio-nano interfaces for self-assembly, biotemplating and biotic-abiotic hybrid material systems and device platforms. Secondly, we demonstrated a novel class of chemical sensors that exploit the chemical recognition of biology and functional properties of plasmonic nanostructures. Overcoming the inherently poor chemical selectivity of the plasmonic nanostructures by synergistically integrating with material-binding peptides, which act as molecular recognition elements promise to propel these sensors from laboratory into real-world settings with specialized functionality and optimized performance even in the presence of numerous unknown interfering species. Bio-nano hybrid plasmonic substrates offer great versatility from nanophotonics to several fields for high-throughput point-of-care diagnostics and therapeutics, homeland security, and combinatorial biological and chemical sensing platform design. Moreover, we described biologically enabled synthesis of hybrid gold nanotechnologies with controlled chemical and physical properties and their potential biomedical applications. The multifunctionality of the hybrid nanostructures that possesses both the therapeutic efficacy and serving as contrast agents for image-guided therapy process hold great potential to fight with complex diseases. Biologically enabled multifunctional nanomaterials with minimal systemic toxicity are critical for realizing nanomedicine in clinical settings. Finally, this highly interdisciplinary research effort on nature-inspired engineering may enable us to pave new paths while tackling our most challenging problems in medicine and across other disciplines and provide a sustainable framework for the future of nanotechnology.

The book covers preparation, designing and utilization of nanohybrid materials for biomedical applications. These materials can improve the effectiveness of drugs, promote high cell growth in new scaffolds, and lead to biodegradable surgical sutures. The use of hybrid magneto-plasmonic nanoparticles may lead to non-invasive therapies. The most promising materials are based on silica nanostructures, polymers, bioresorbable metals, liposomes, biopolymeric electrospun nanofibers, graphene, and gelatin. Much research focuses on the development of biomaterials for cell regeneration and wound healing applications. Keywords: Biomedical Materials, Cell Growth, Cell Regeneration, Wound Healing, Surgical Sutures, Non-invasive Therapies , Drug Transport, Tissue Engineering, Cardiovascular Implants, Fracture Repair Implants, Biodegradable Materials, Hybrid Magneto-plasmonic Nanoparticles, Silica Nanostructures, Polymers, Bioresorbable Metals, Liposomes, Biopolymeric Electrospun Nanofibers, Graphene, Gelatin-based Hydrogels.

This book offers a detailed discussion of the complex magnetic behavior of magnetic nanosystems, with its myriad of geometries (e.g. core-shell, heterodimer and dumbbell) and its different applications. It provides a broad overview of the numerous current studies concerned with magnetic nanoparticles, presenting key examples and an in-depth examination of the cutting-edge developments in this field. This contributed volume shares the latest developments in nanomagnetism with a wide audience: from upper undergraduate and graduate students to advanced specialists in both academia and industry. The first three chapters serve as a primer to the more advanced content found later in the book, making it an ideal introductory text for researchers starting in this field. It provides a forum for the critical evaluation of many aspects of complex nanomagnetism that are at the forefront of nanoscience today. It also presents highlights from the extensive literature on the topic, including the latest research in this field.

Nanobiosensors: Nanotechnology in the Agri-Food Industry, Volume 8, provides the latest information on the increasing demand for robust, rapid, inexpensive, and safe alternative technologies that monitor, test, and detect harmful or potentially dangerous foods. Due to their high sensitivity and selectivity, nanobiosensors have attracted attention for their use in monitoring not only biological contaminants in food, but also potential chemical and physical hazards. This book offers a broad overview regarding the current progress made in the field of nanosensors, including cutting-edge technological progress and the impact of these devices on the food industry. Special attention is given to the detection of microbial contaminants and harmful metabolotes, such as toxins and hormones, which have a great impact on both humans and animal health and feed. Includes the most up-to-date information on nanoparticles based biosensors and quantum dots for biological detection Provides application methods and techniques for research analysis for bacteriological detection and food testing Presents studies using analytical tools to improve food safety and quality analysis

Plasmonics is an important branch of optics concerned with the interaction of metals with light. Under appropriate illumination, metal nanoparticles can exhibit enhanced light absorption, becoming nanosources of heat that can be precisely controlled. This book provides an overview of the exciting new field of thermoplasmonics and a detailed discussion of its theoretical underpinning in nanophotonics. This topic has developed rapidly in the last decade, and is now a highly-active area of research due to countless applications in nanoengineering and nanomedicine. These important applications include photothermal cancer therapy, drug and gene delivery, nanochemistry and photothermal imaging. This timely and self-contained text is suited to all researchers and graduate students working in plasmonics, nano-optics and thermal-induced processes at the nanoscale.

The objective of this book is to provide the fundamental comprehension of a broad range of topics in an integrated volume such that readership hailing from diverse disciplines can rapidly acquire the necessary background for applying it in pertinent research and development field.

Structurally the work is demarcated into the six most popular areas of research: (1) biocompatibility of nanomaterials with living organisms in their various manifestations (2) nanobiosensors for clinical diagnostics, detecting biomolecules which are useful in the clinical diagnosis of genetic, metabolically acquired, induced or infectious disease (3) targeted drug delivery for nanomaterials in their various modifications (4) nanomedical devices and structures which are used in the development of implantable medical devices and structures such as nanorobots (5) nanopharmacology, as novel nanoparticles are increasingly engineered to diagnose conditions and recognize pathogens, identify ideal pharmaceutical agents to treat the condition or pathogens, fuel high-yield production of matched pharmaceuticals (potentially in vivo), locate, attach or enter target tissue,

Bionanomaterials are molecular materials composed partially or completely of biological molecules, key biological structures, such as proteins, enzymes, viruses, DNA, biopolymers as well as metal, metal oxides, and carbon nanomaterials with characteristic bioactivity. Bionanomaterials have drawn much attention for their use in a wide range of industrial applications from scaffolds, dental implants, drug delivery, dialysis, biobatteries, biofuel cells, air purification, and water treatment. Therefore, the intensive current research in this area is driven towards the designing and functionalization of bionanomaterials for industrial applications. Fundamentals of Bionanomaterials covers the fundamental aspects, experimental setup, synthesis, properties, and characterization of the different types of bionanomaterial. It discusses the different structure and unique properties of bionanomaterials that can be obtained by modifying their morphology and composition, highlighting a wide range of fabrication techniques of bionanomaterials and critical processing parameters. This is an important reference source for all those seeking to gain a solid understanding of the characterization, properties and processing a variety of bionanomaterial classes. Explains the major properties and characterization techniques for a range of bionanomaterial classes Discusses the commercialization of different types of bionanomaterials for a variety of industry sectors Highlights the challenges and interdisciplinary perspective of bionanomaterials in science, biology, engineering, medicine, and technology, incorporating both fundamentals and applications

The combination of supramolecular chemistry, inorganic solids, and nanotechnology has already led to significant advances in many areas such as sensing, controlled motion, and delivery. By making possible an unprecedented tunability of the properties of nanomaterials, these techniques open up whole new areas of application for future supramolecular concepts. The Supramolecular Chemistry of Organic–Inorganic Hybrid Materials gathers current knowledge on the subject and provides an overview of the present state and upcoming challenges in this rapidly growing, highly cross- or interdisciplinary research field. The book details how these designed materials can improve existing materials or generate novel functional features such as chemical amplification, cooperative binding and signal enhancement that are difficult or not at all achievable by classical organic supramolecular chemistry. It also discusses issues related to nanofabrication or nanotechnology such as the directed and controlled assembly or disassembly, biomimetic functions and strategies, and the gating and switching of surface functions or morphology.

The term biomimetic is comparatively new on the chemical scene, but the concept has been utilized by chemists for many years. Furthermore, the basic idea of making a synthetic material that can imitate the func tions of natural materials probably could be traced back into antiquity. From the dawn of creation, people have probably attempted to duplicate or modify the activities of the natural world. (One can even find allusions to these attempts in the Bible; e. g. , Genesis 30. ) The term "mimetic" means to imitate or mimic. The word "mimic" means to copy closely, or to imitate accurately. Biomimetic, which has not yet entered most dictionaries, means to imitate or mimic some specific bio logical function. Usually, the objective of biomimetics is to form some useful material without the need of utilizing living systems. In a simi lar manner, the term biomimetic polymers means creating synthetic poly mers which imitate the activity of natural bioactive polymers. This is a major advance in polymer chemistry because the natural bioactive polymers are the basis of life itself. Thus, biomimetic polymers imitate the life process in many ways. This present volume delineates some of the recent progress being made in this vast field of biomimetic polymers. Chemists have been making biomimetic polymers for more than fifty years, although this term wasn't used in the early investigations.