Nanoengineering in Musculoskeletal Regeneration provides the reader an updated summary of the therapeutic pipeline—from biomedical discovery to clinical implementation—aimed at improving treatments for patients with conditions of the muscles, tendons, cartilage, meniscus, and bone. Regenerative medicine focuses on using stem cell biology to advance medical therapies for devastating disorders. This text presents novel, significant, and interdisciplinary theoretical and experimental results related to nanoscience and nanotechnology in musculoskeletal regeneration. Content includes basic, translational, and clinical research addressing musculoskeletal repair and regeneration for the treatment of diseases and injuries of the skeleton and its associated tissues. Musculoskeletal degeneration and complications from injuries have become more prevalent as people live longer and increasingly participate in rigorous athletic and recreational activities. Additionally, defects in skeletal tissues may immobilize people and cause inflammation and pain. Musculoskeletal regeneration research provides solutions to repair, restore, or replace skeletal elements and associated tissues that are affected by acute injury, chronic degeneration, genetic dysfunction, and cancer-related defects. The goal of musculoskeletal regeneration medicine research is to improve quality of life and outcomes for people with musculoskeletal injury or degradation. Provides broad coverage in all research areas focused on the applications of nanotechnology in musculoskeletal regeneration Offers useful guidance for physician-scientists with expertise in orthopedics, regenerative medicine, bioengineering, biomaterials, nanoengineering, stem cell biology, and chemistry Serves as a practical reference for many disciplines, including bioengineering, biomaterials, tissue engineering, regenerative medicine, musculoskeletal regenerative medicine, and nanomedicine

Nanoengineering in Musculoskeletal Regeneration provides the reader an updated summary of the therapeutic pipeline-from biomedical discovery to clinical implementation-aimed at improving treatments for patients with conditions of the muscles, tendons, cartilage, meniscus, and bone. Regenerative medicine focuses on using stem cell biology to advance medical therapies for devastating disorders. This text presents novel, significant, and interdisciplinary theoretical and experimental results related to nanoscience and nanotechnology in musculoskeletal regeneration. Content includes basic, translational, and clinical research addressing musculoskeletal repair and regeneration for the treatment of diseases and injuries of the skeleton and its associated tissues. Musculoskeletal degeneration and complications from injuries have become more prevalent as people live longer and increasingly participate in rigorous athletic and recreational activities. Additionally, defects in skeletal tissues may immobilize people and cause inflammation and pain. Musculoskeletal regeneration research provides solutions to repair, restore, or replace skeletal elements and associated tissues that are affected by acute injury, chronic degeneration, genetic dysfunction, and cancer-related defects. The goal of musculoskeletal regeneration medicine research is to improve quality of life and outcomes for people with musculoskeletal injury or degradation. Provides broad coverage in all research areas focused on the applications of nanotechnology in musculoskeletal regeneration Offers useful guidance for physician-scientists with expertise in orthopedics, regenerative medicine, bioengineering, biomaterials, nanoengineering, stem cell biology, and chemistry Serves as a practical reference for many disciplines, including bioengineering, biomaterials, tissue engineering, regenerative medicine, musculoskeletal regenerative medicine, and nanomedicine

Nanocomposites for Musculoskeletal Tissue Regeneration discusses the advanced biomaterials scientists are exploring for use as tools to mimic the structure of musculoskeletal tissues. Bone and other musculoskeletal tissues naturally have a nanocomposite structure, therefore nanocomposites are ideally suited as a material for replacing and regenerating these natural tissues. In addition, biological properties such as biointegration and the ability to tailor and dope the materials make them highly desirable for musculoskeletal tissue regeneration. Provides a comprehensive discussion on the design and advancements made in the use of nanocomposites for musculoskeletal tissue regeneration Presents an In-depth coverage of material properties Includes discussions on polymers, ceramics, and glass

Nanoengineered Biomaterials for Regenerative Medicine showcases the advances that have taken place in recent years as an increasing number of nanoengineered biomaterials have been targeted to various organ tissues. The book systematically explores how nanoengineered biomaterials are used in different aspects of regenerative medicine, including bone regeneration, brain tissue reconstruction and kidney repair. It is a valuable reference resource for scientists working in biomaterials science who want to learn more about how nanoengineered materials are practically applied in regenerative medicine. Nanoengineered biomaterials have gained particular focus due to their many advantages over conventional techniques for tissue repair. As a wide range of biomaterials and nanotechnology techniques have been examined for the regeneration of tissues, this book highlights the discussions and advancements made. Provides a digestible reference source for surgeons and physicians who want to learn more on nanoengineered biomaterials and their use in effective medical treatments Offers systematic coverage on how nanoengineered biomaterials are used for different types of medicine Assesses the benefits and drawbacks of the use of bioengineered nanomaterials in different areas of regenerative medicine

"Cell niches are present in several human body tissues as a dynamic microenvironment essential to modulate stem cells’ behavior in health, under injury, and in regenerative processes. The interplay between stem cells and their niche is necessary for sustaining tissues. The extracellular matrix (ECM) is the crucial component of the stem cell. It defines the architectural space, physical binding to the cell membrane, and interactions with the neighborhood cells and supports physical stress. Domains with nano or micrometric sizes define the surface and topology of the ECM, mediating cell interactions and macrophage recruitment to injured sites. Over the last two decades, the integration of biomedicine with other engineering and biomaterial sciences promoted the development of nanotechnology and regenerative medicine toward mimicking the specialized stem cell niches to treat diseases with less invasive and efficient therapies. Innovative approaches in nanotechnology, such as targeting the immunological system, transporting drugs across blood–brain/BBB and blood–retinal barriers/BRB, directing active moiety to specific disease location/organs, encapsulation of multiple components, and promoting signalization and pathway-specific surfaces for cell interactions and growth, are indeed promising. On the other side, developments of biomaterial scaffolds to mimic the cell niches for interactions with stem cells in vitro or in vivo have tremendous potential. The three-dimensional printing technology offers a base for a wide array of applications, for example, developing tissue constructs, mimetic organs, organoids, and organ-on-a-chip, thus avoiding the differences between animal model species and humans. Aiming closer to the natural environments, fresh autologous products from the blood, such as platelet-rich plasma (PRP), contain platelets and leukocytes, providing growth factors, cytokines, and proteins for the resident stem cells in the stages of regeneration. PRP also provides pain relief, reducing disabilities in elderly or diseased people. This book brings thought-provoking multidisciplinary topics on the diverse aspects of basic and applied sciences. The prime focus of the compilation is to understand the challenges researchers encounter in combining nanotechnology and regenerative medicine, ultimately integrating both disciplines for the benefit of the patient and offering them a ray of hope to be cured. Presents multi-disciplined knowledge on bench-to-bedside application of nanotechnology in regenerative medicines Highlights the fundamentals, frontiers, limitations, and challenges faced by regenerative medicines Exhibits synergy of biotechnology, nanomedicine, biomedicine, chemical-material engineering, pharmaceutical technology, and applied medical sciences in success of regenerative medicines

Tissue engineering aims to develop biological substitutes that restore, maintain, or improve damaged tissue and organ functionality. To date, numerous stem cells and biomaterials have been explored for a variety of tissue and organ regeneration. The challenge for existing stem cell-based techniques is that current therapies lack controlled environm

Although nanotechnology applied to medicine has a potentially huge impact on drug delivery and tissue engineering, significant challenges need to be resolved before clinically viable nanomedicine or nanobiomedicine therapies will be available. Skillfully edited, with contributions from an expert panel of researchers, Nanotechnology in Tissue Engine