Nuno M. Neves

Rui L. Reis

In-depth information on natural biomaterials and their applications for translational medicine! Undiluted expertise: edited by world-leading experts with contributions from top-notch international scientists, collating experience and cutting-edge knowledge on natural biomaterials from all over the world A must-have on the shelf in every biomaterials lab: graduate and PhD students beginning their career in biomaterials science and experienced researchers and practitioners alike will turn to this comprehensive reference in their daily work Link to clinical practice: chapters on translational research make readers aware of what needs to be considered when a biomaterial leaves the lab to be routinely used

Biomaterials from Nature for Advanced Devices and Therapies

Manuela Battaglia

Hans-Dieter Volk

Annelise Bennaceur Griscelli

Bringing Advanced Therapy Medicinal Products (ATMPs) to the Clinic and Beyond: How to Ensure the Sustainable and Affordable Introduction of ATMPs Into Healthcare

Shi-Cong Tao

Shang-Chun Guo

Wei Seong Toh

Owen Gareth Davies

Existing culture systems have a limited ability to reproduce the complicated and dynamic microenvironment of a functioning organ. To solve the issues of conventional culture techniques, multidisciplinary researchers, involving medical doctors, stem cell and developmental biology experts, engineers and physical scientists, have emerged to innovate methods and devices. A microfluidic organ-on-a-chip (μOOC) is a cell culture device, based on microfluidic technology, which contains continuously perfused chambers with cells to simulate organ-level physiology/pathology. The μOOC is not to build a whole living organ, but rather to synthesize minimal functional units that recapitulate organ-/tissue-level functions. The μOOC can be applied to study not only the convention stimulation on cells by molecular/drugs, but also physical forces (fluid shear stress, cyclic strain and mechanical compression), organ-specific cell-cell intercommunication, and organ-organ coupling responses. There is an emerging need for innovative approaches for the production, control, analysis, and utilization of the μOOC, and even the multiple interconnected μOOC (Human-on-a-Chip). Although the μOOC has attracted much attention and is continuous being studied, there are still many difficult problems to be solved. Some of the most mentioned challenges include microenvironmental (biochemical, biophysical, biomechanical, nutrient, etc.) control, modeling tissue–tissue and multiorgan interactions, and reducing variability (automated control, high-throughput manipulation/analysis, integration of biosensing and etc.).

Microfluidic Organ-on-a-Chip: Revolutionary Platforms for Disease Comprehension and Treatment

Albino Martins

Electrospinning is a versatile and effective technique widely used to manufacture nanofibrous structures from a diversity of materials (synthetic, natural or inorganic). The electrospun nanofibrous meshes’ composition, morphology, porosity, and surface functionality support the development of advanced solutions for many biomedical applications. The Special Issue on “Electrospun Nanofibers for Biomedical Applications” assembles a set of original and highly-innovative contributions showcasing advanced devices and therapies based on or involving electrospun meshes. It comprises 13 original research papers covering topics that span from biomaterial scaffolds’ structure and functionalization, nanocomposites, antibacterial nanofibrous systems, wound dressings, monitoring devices, electrical stimulation, bone tissue engineering to first-in-human clinical trials. This publication also includes four review papers focused on drug delivery and tissue engineering applications.

Electrospun Nanofibers for Biomedical Applications

Nuno M. Neves

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