Atnaujinkite slapukų nuostatas

El. knyga: Comprehensive Biomaterials

Edited by (University), Editor-in-chief (University of Pennsylvania, Philadelphia, USA), Edited by (University of California, Berkeley, Berkeley, CA, USA), Edited by (University of Pennsylvania, Philadelphia, PA, USA), Edited by (Queensland University of Technology, Brisbane, QLD, Australia), Edited by
  • Formatas: EPUB+DRM
  • Išleidimo metai: 28-Aug-2015
  • Leidėjas: Elsevier Science Ltd
  • Kalba: eng
  • ISBN-13: 9780080552941
Kitos knygos pagal šią temą:
  • Formatas: EPUB+DRM
  • Išleidimo metai: 28-Aug-2015
  • Leidėjas: Elsevier Science Ltd
  • Kalba: eng
  • ISBN-13: 9780080552941
Kitos knygos pagal šią temą:

DRM apribojimai

  • Kopijuoti:

    neleidžiama

  • Spausdinti:

    neleidžiama

  • El. knygos naudojimas:

    Skaitmeninių teisių valdymas (DRM)
    Leidykla pateikė šią knygą šifruota forma, o tai reiškia, kad norint ją atrakinti ir perskaityti reikia įdiegti nemokamą programinę įrangą. Norint skaityti šią el. knygą, turite susikurti Adobe ID . Daugiau informacijos  čia. El. knygą galima atsisiųsti į 6 įrenginius (vienas vartotojas su tuo pačiu Adobe ID).

    Reikalinga programinė įranga
    Norint skaityti šią el. knygą mobiliajame įrenginyje (telefone ar planšetiniame kompiuteryje), turite įdiegti šią nemokamą programėlę: PocketBook Reader (iOS / Android)

    Norint skaityti šią el. knygą asmeniniame arba „Mac“ kompiuteryje, Jums reikalinga  Adobe Digital Editions “ (tai nemokama programa, specialiai sukurta el. knygoms. Tai nėra tas pats, kas „Adobe Reader“, kurią tikriausiai jau turite savo kompiuteryje.)

    Negalite skaityti šios el. knygos naudodami „Amazon Kindle“.

Comprehensive Biomaterials brings together the myriad facets of biomaterials into one, major series of six edited volumes that would cover the field of biomaterials in a major, extensive fashion:

Volume 1: Metallic, Ceramic and Polymeric BiomaterialsVolume 2: Biologically Inspired and Biomolecular MaterialsVolume 3: Methods of AnalysisVolume 4: Biocompatibility, Surface Engineering, and Delivery Of Drugs, Genes and Other MoleculesVolume 5: Tissue and Organ EngineeringVolume 6: Biomaterials and Clinical Use

Experts from around the world in hundreds of related biomaterials areas have contributed to this publication, resulting in a continuum of rich information appropriate for many audiences. The work addresses the current status of nearly all biomaterials in the field, their strengths and weaknesses, their future prospects, appropriate analytical methods and testing, device applications and performance, emerging candidate materials as competitors and disruptive technologies, and strategic insights for those entering and operational in diverse biomaterials applications, research and development, regulatory management, and commercial aspects. From the outset, the goal was to review materials in the context of medical devices and tissue properties, biocompatibility and surface analysis, tissue engineering and controlled release. It was also the intent both, to focus on material properties from the perspectives of therapeutic and diagnostic use, and to address questions relevant to state-of-the-art research endeavors.

Recenzijos

"In a highly technical and vastly broad subject area, the key to managing (mastering) reputable information and facilitating new breakthroughs is through its preservation and organization by experts in the field. For students or researchers wanting a quick introduction or a working knowledge of an unfamiliar subfield of biomaterials, the assembled chapters will be much more valuable than the typical documents that rise to the top of keyword searches. The authors and editors should be commended for their efforts and congratulated on producing an impressive reference of lasting value. In this reviewer's opinion, it will be an essential reference for any library affiliated with graduate programs in the biomedical sciences. Summing Up: Highly recommended. Upper-division undergraduates and above." --Choice

"This is a huge body of work and I would suspect the price would preclude individual researchers from acquiring the set; however, this is a must have for libraries as an up-to-date reference for the current state-ofthe-art information in this field as well as a fundamental reference tome for researchers seeking an introduction to the field." --Journal of Biomaterials Applications, February 2012

Daugiau informacijos

The new standard reference for students and researchers interested in any aspect of biomaterials science and engineering
VOLUME 1 METALLIC, CERAMIC AND POLYMERIC BIOMATERIALS
1.101 Biomaterials
1(4)
Metals
1.102 Metals for Use in Medicine
5(16)
1.103 Electrochemical Behavior of Metals in the Biological Milieu
21(28)
1.104 Shape Memory Alloys for Use in Medicine
49(24)
Ceramics-Inert Ceramics
1.105 Alumina
73(22)
1.106 Zirconia as a Biomaterial
95(14)
1.107 Carbon and Diamond
109(18)
1.108 Wear-Resistant Ceramic Films and Coatings
127(30)
Ceramics - Bioactive Ceramics
1.109 Bioactive Ceramics
157(24)
1.110 Bioactive Glass-Ceramics
181(6)
1.111 Bioactive Ceramics: Physical Chemistry
187(36)
1.112 Calcium Phosphate Coatings
223(8)
1.113 Bioactive Layer Formation on Metals and Polymers
231(14)
1.114 Bioactivity: Mechanisms
245(14)
1.115 Calcium Phosphates for Cell Transfection
259(8)
1.116 Bioactive Ceramics: Cements
267(18)
1.117 Phosphate-Based Glasses
285(14)
1.118 Calcium Phosphate Ceramics with Inorganic Additives
299(14)
1.119 Silicon-Containing Apatites
313(22)
1.120 Synthetic Bone Grafts: Clinical Use
335(14)
Polymers
1.121 Polymer Fundamentals: Polymer Synthesis
349(24)
1.122 Structural Biomedical Polymers (Nondegradable)
373(8)
1.123 Degradable Polymers
381(36)
1.124 Polymer Films Using LbL Self-Assembly
417(14)
1.125 Polyurethane Silicone Polyurethane Copolymers
431(48)
1.126 Shape-Memory Polymers
479(18)
1.127 Electrospinning and Polymer Nanofibers: Process Fundamentals
497(16)
1.128 Fluorinated Biomaterials
513(14)
1.129 Engineering the Biophysical Properties of Basement Membranes into Biomaterials: Fabrication and Effects on Cell Behavior
527(20)
1.130 Electroactive Polymeric Biomaterials
547(16)
1.131 Superporous Hydrogels for Drug Delivery Systems
563(14)
1.132 Dynamic Hydrogels
577
VOLUME 2 BIOLOGICALLY INSPIRED AND BIOMOLECULAR MATERIALS
Biologically Inspired and Biomolecular Materials and Interfaces
2.201 Bio-inspired Silica Nanomaterials for Biomedical Applications
1(16)
2.202 Engineering Viruses For Gene Therapy
17(18)
2.203 Protein-Engineered Biomaterials: Synthesis and Characterization
35(18)
2.204 Peptoids: Synthesis, Characterization, and Nanostructures
53(24)
2.205 Self-Assembling Biomaterials
77(18)
2.206 Phages as Tools for Functional Nanomaterials Development
95(18)
2.207 Extracellular Matrix: Inspired Biomaterials
113(14)
2.208 Artificial Extracellular Matrices to Functionalize Biomaterial Surfaces
127(28)
2.209 Materials as Artificial Stem Cell Microenvironments
155(14)
Materials of Biological Origin
2.210 Bone as a Material
169(18)
2.211 Polymers of Biological Origin
187(20)
2.212 Silk Biomaterials
207(14)
2.213 Chitosan
221(18)
2.214 Hyaluronic Acid
239(22)
2.215 Collagen: Materials Analysis and Implant Uses
261(18)
2.216 Collagen-GAG Materials
279(24)
2.217 Fibrin
303(26)
2.218 Elastin Biopolymers
329(18)
2.219 Biophysical Analysis of Amyloid Formation
347(14)
2.220 Extracellular Matrix as Biomimetic Biomaterial: Biological Matrices for Tissue Regeneration
361(8)
2.221 Decellularized Scaffolds
369(18)
2.222 Xenogenic Tissues and Biomaterials for the Skeletal System
387(18)
2.223 Bacterial Cellulose as Biomaterial
405
VOLUME 3 METHODS OF ANALYSIS
Surface and Other Instrumental Analysis
3.301 Surface Analysis and Biointerfaces: Vacuum and Ambient In Situ Techniques
1(22)
3.302 Atomic Force Microscopy
23(14)
3.303 Proteomic and Advanced Biochemical Techniques lo Study Protein Adsorption
37(10)
3.304 Developments in High-Resolution CT: Studying Bioregeneration by Hard X-ray Synchrotron-Based Microtomography
47(16)
Mechanical Analysis
3.305 Biomedical Thin Films: Mechanical Properties
63(12)
3.306 Microindentation
75(16)
Computational Analyses and Modeling
3.307 Finite Element Analysis in Bone Research: A Computational Method Relating Structure to Mechanical Function
91(22)
3.308 The Mechanics of Native and Engineered Cardiac Soft Tissues
113(20)
3.309 Fluid Mechanics: Transport and Diffusion Analyses as Applied in Biomaterials Studies
133(22)
3.310 Computational Methods Related to Reaction Chemistry
155(16)
3.311 Molecular Simulation Methods to Investigate Protein Adsorption Behavior at the Atomic Level
171(22)
Biological and Tissue Analyses
3.312 Cell Culture Systems for Studying Biomaterial Interactions with Biological Barriers
193(22)
3.313 Histological Analysis
215(20)
3.314 Materials to Control and Measure Cell Function
235(22)
3.315 Biological Microelectromechanical Systems (BioMEMS) Devices
257(20)
3.316 Immunohistochemistry
277(14)
3.317 Fluorescence Imaging of Cell-Biomaterial Interactions
291(14)
3.318 Molecular Imaging
305(24)
3.319 Characterization of Nanoparticles in Biological Environments
329(12)
3.320 Nanostructured Polymeric Films for Cell Biology
341(16)
3.321 Microarrays in Biomaterials Research
357(8)
In Vivo and Ex Vivo Imaging
3.322 Infrared and Raman Microscopy and Imaging of Biomaterials
365(14)
3.323 Magnetic Resonance of Bone Microstructure and Chemistry
379(14)
3.324 Fluorescent Nanoparticles for Biological Imaging
393(14)
3.325 Imaging Mineralized Tissues in Vertebrates
407(20)
3.326 Imaging and Diagnosis of Biological Markers
427(20)
Biosensors
3.327 Intracellular Probes
447(24)
3.328 Biosensors Based on Sol-Gel-Derived Materials
471(20)
3.329 Hydrogels in Biosensing Applications
491(28)
3.330 Carbon Nanotube-Based Sensors: Overview
519(10)
3.331 Conjugated Polymers for Biosensor Devices
529
VOLUME 4 BIOCOMPATIBILITY, SURFACE ENGINEERING, AND DELIVERY OF DRUGS, GENES AND OTHER MOLECULES
Biocompatibility
4.401 The Concept of Biocompatibility
1(6)
4.402 Biocompatibility and the Relationship to Standards: Meaning and Scope of Biomaterials Testing
7(20)
4.403 The Innate Response to Biomaterials
27(10)
4.404 Adaptive Immune Responses to Biomaterials
37(12)
4.405 Leukocyte-Biomaterial Interaction In Vitro
49(14)
4.406 Protein Interactions with Biomaterials
63(12)
4.407 Bacterial Adhesion and Biomaterial Surfaces
75(26)
4.408 Integrin-Activated Reactions to Metallic Implant Surfaces
101(14)
4.409 Surfaces and Cell Behavior
115(12)
4.410 Sterilization of Biomaterials of Synthetic and Biological Origin
127(18)
Surface Engineering
4.411 Peptide-and Protein-Modified Surfaces
145(16)
4.412 Rational and Combinatorial Methods to Create Designer Protein Interfaces
161(20)
4.413 Patterned Biointerfaces
181(22)
4.414 Molecular Bio mimetic Designs for Controlling Surface Interactions
203(16)
4.415 Surface Engineering Using Peptide Amphiphiles
219(28)
4.416 Growth Factors and Protein-Modified Surfaces and Interfaces
247(34)
4.417 Tethered Antibiotics
281(14)
4.418 Engineering Interfaces for Infection Immunity
295(20)
Synthesis and Structural Design for Drug and Gene Delivery
4.419 Vaccine and Immunotherapy Delivery
315(18)
4.420 Drug Delivery via Heparin Conjugates
333(6)
4.421 Self-Assembled Prodrugs
339(18)
4.422 pH-Responsive Polymers for the Intracellular Delivery of Biomolecular Drugs
357(20)
4.423 Polymeric Drug Conjugates by Controlled Radical Polymerization
377(12)
4.424 Nanoparticles for Nucleic Acid Delivery
389(22)
4.425 Delivery of Nucleic Acids and Gene Delivery
411(34)
4.426 Electrospun Fibers for Drug Delivery
445(18)
4.427 Cell-Demanded Release of Growth Factors
463(12)
Inorganic and Hybrid Controlled Release Systems
4.428 Sol-Gel Processed Oxide Controlled Release Materials
475(22)
4.429 Ordered Mesoporous Silica Materials
497(18)
4.430 Silica-Based Mesoporous Nanospheres
515(14)
4.431 Encapsulation of Cells (Cellular Delivery) Using Sol-Gel Systems
529(16)
4.432 Layered Double Hydroxides as Controlled Release Materials
545(14)
4.433 Porous Metal-Organic Frameworks as New Drug Carriers
559(16)
4.434 Hybrid Magnetic Nanoparticles for Targeted Delivery
575
VOLUME 5 TISSUE AND ORGAN ENGINEERING
Tissue Engineering - Fundamentals
5.501 Scaffolds: Flow Perfusion Bioreactor Design
1(12)
5.502 Engineering Scaffold Mechanical and Mass Transport Properties
13(22)
5.503 Biomaterials and the Microvasculature
35(16)
5.504 Effect of Substrate Modulus on Cell Function and Differentiation
51(14)
5.505 Quantifying Integrin-Ligand Engagement and Cell Phenotype in 3D Scaffolds
65(8)
5.506 Effects of Mechanical Stress on Cells
73(8)
5.507 Tissue Engineering and Selection of Cells
81(14)
5.508 Scaffold Materials for hES Cell Culture and Differentiation
95(20)
5.509 Cell Encapsulation
115(16)
5.510 Engineered Bioactive Molecules
131(16)
5.511 Rotating-Wall Vessels for Cell Culture
147(22)
5.512 In Vivo Bioreactors
169(8)
5.513 Systems Biology in Biomaterials and Tissue Engineering
177(12)
Tissue Engineering-Musculoskeletal, Cranial and Maxillofacial
5.514 Chondrocyte Transplantation and Selection
189(10)
5.515 Cartilage Tissue Engineering
199(14)
5.516 Biomaterials in Cartilage Tissue Engineering
213(8)
5.517 Tissue Engineering of the Temporomandibular Joint
221(16)
5.518 Endocultivation: Computer Designed, Autologous, Vascularized Bone Grafts
237(8)
5.519 Biomaterials Selection for Dental Pulp Regeneration
245(10)
5.520 Bioactive Ceramics and Bioactive Ceramic Composite-Based Scaffolds
255(14)
5.521 Calcium Phosphates and Bone Induction
269(12)
5.522 Bone Tissue Engineering: Growth Factors and Cytokines
281(22)
5.523 Carbon Nanotubes: Applications for In Situ Implant Sensors
303(14)
5.524 Biomaterials for Replacement and Repair of the Meniscus and Annulus Fibrosus
317(16)
5.525 Tissue Engineering Approaches to Regeneration of Anterior Cruciate Ligament
333(12)
5.526 Tissue Engineering of Muscle Tissue
345(16)
Tissue Engineering - Cardiovascular
5.527 Cardiovascular Tissue Engineering
361(16)
5.528 Tissue Engineering of Heart Valves
377(16)
5.529 Biomaterials for Cardiac Cell Transplantation
393(12)
5.530 Medical Applications of Cell Sheet Engineering
405(16)
Tissue Engineering, Neurological and Neurosurgical
5.531 Peripheral Nerve Regeneration
421(14)
5.532 Nerve Tissue Engineering
435(20)
5.533 Biomaterials for Central Nervous System Regeneration
455(12)
Tissue Engineering - Other Tissues
5.534 Skin Tissue Engineering
467(34)
5.535 Cartilage Regeneration in Reconstructive Surgery
501(8)
5.536 Tissue-Engineering Hollow Noncardiac Intrathoracic Organs: State-of-the-Art 2010
509(20)
5.537 Adipose Tissue Engineering
529(12)
5.538 Finger
541(6)
Organ Engineering
5.539 From Tissue to Organ Engineering
547(16)
5.540 Kidney Tissue Engineering
563(12)
5.541 Liver Tissue Engineering
575(12)
5.542 Organ Printing
587
VOLUME 6 BIOMATERIALS AND CLINICAL USE
Orthopedic Surgery - Joint Replacement
6.601 Current and Projected Utilization of Total Joint Replacements
1(10)
6.602 Bone Cement
11(18)
6.603 Ultrahigh Molecular Weight Polyethylene Total Joint Implants
29(22)
6.604 Ceramic Prostheses: Clinical Results Worldwide
51(14)
6.605 Porous Coatings in Orthopedics
65(14)
6.606 Biological Effects of Wear Debris from Joint Arthroplasties
79(10)
6.607 Fretting Corrosion of Orthopedic Implants
89(8)
6.608 Implant Debris: Clinical Data and Relevance
97(12)
6.609 Orthopedic Implant Use and Infection
109(18)
Orthopedic Surgery - Spinal Treatment
6.610 Trends in Materials for Spine Surgery
127(20)
6.611 Injectable Bone Cements for Spinal Column Augmentation: Materials for Kyphoplasty/Vertebroplasty
147(14)
6.612 Biomaterials for Intervertebral Disc Regeneration
161(10)
6.613 Nucleus Replacement
171(20)
6.614 Wear: Total Intervertebral Disc Prostheses
191(16)
6.615 Intervertebral Disc
207(12)
Orthopedic Surgery - Fracture Fixation, Bone Grafting, Tendon and Ligament Repair
6.616 Materials in Fracture Fixation
219(18)
6.617 Bone Tissue Grafting and Tissue Engineering Concepts
237(20)
6.618 Materials in Tendon and Ligament Repair
257(24)
Dentistry, and Oral and Maxillofacial Surgery
6.619 Materials in Dental Implantology
281(24)
6.620 Dental Graft Materials
305(20)
6.621 Biomaterials and Their Application in Craniomaxillofacial Surgery
325(18)
6.622 The Effect of Substrate Microtopography on Osseointegration of Titanium Implants
343(10)
6.623 Materials in Fixed Prosthodontics for Indirect Dental Restorations
353(14)
Cardiology and Cardiovascular Surgery
6.624 Cardiac Patch with Cells: Biological or Synthetic
367(22)
6.625 Long-Term Implantable Ventricular Assist Devices (VADs) and Total Artificial Hearts (TAHs)
389(14)
6.626 Cardiac Valves: Biologic and Synthetic
403(24)
6.627 Drug-Eluting Stents
427(22)
6.628 Vascular Grafts
449(20)
Other Surgical Disciplines: Neurology and Neurosurgery
6.629 Cerebrospinal Fluid Shunts
469(14)
6.630 Biomaterials for Spinal Cord Repair
483(12)
Other Surgical Disciplines: Ophthalmology
6.631 Keratoprostheses
495(6)
6.632 Retina Reconstruction
501(16)
6.633 Development of Contact Lenses from a Biomaterial Point of View - Materials, Manufacture, and Clinical Application
517(26)
Other Surgical Disciplines: General
6.634 Bioartificial Kidney
543(18)
6.635 Surgical Adhesion and Its Prevention
561(12)
6.636 Suture Material: Conventional and Stimuli Responsive
573(16)
6.637 Staple Line Reinforcement Materials
589(4)
6.638 Biomaterials for Hernia Repair
593(12)
Index 605
Paul Ducheyne is Professor of Bioengineering at the University of Pennsylvania, Philadelphia, USA, and a member of the Institute for Medicine and Engineering (IME) and the Center for Engineering Cells and Regeneration (CECR). Paul's research is focused in the investigation of mechanistic effects of materials on cellular functions, specifically cell attachment, proliferation, differentiation and extracellular matrix formation, especially with respect to biomaterials and tissue engineering. His lab works extensively with the interface zone between materials and cells and tissues, using both materials science techniques as well as life science methods. In addition, studies focus on the combined effects of microgravity and substrate material on cellular functions and on material surface modification and controlled release of growth factors. Several tissue engineering applications are pursued with orthopedic and dental applications. Specifically, his laboratory studies whether bone defects can be repaired with full return of mechanical function by treating defects with in vitro synthesized bone tissue. Paul Ducheyne is Professor of Bioengineering and Professor of Orthopaedic Surgery Research at the University of Pennsylvania, Philadelphia, USA. He is the Director of its Center for Bioactive Materials and Tissue Engineering. He also is Special Guest Professor at the University of Leuven, Belgium.

Paul Ducheyne has Materials Science and Engineering degrees from the K.U. Leuven. Belgium (M.Sc.: 1972; Ph.D.: 1976). With fellowships from the National Institutes of Health (International Postdoctoral Fellowship) and the Belgian American Educational Foundation (Honorary Fellowship), he performed postdoctoral research at the University of Florida.

Paul Ducheyne has organized a number of symposia and meetings, such as the Fourth European Conference on Biomaterials (1983), the Engineering Foundation Conference on Bioceramics (1986) which led to the New York Academy of Sciences publication: "Bioceramics, material characteristics versus in vivo behavior", and the Sixth International Symposium on Ceramics in Medicine (1993). He has lectured around the world and serves or has served on the editorial board of more than ten scientific journals in the biomaterials, bioceramics, bioengineering, tissue engineering, orthopaedics and dental fields. He has been a member of the editorial board, and then an associate editor of Biomaterials, the leading biomaterials journal, since its inception in the late seventies. He has authored more than 300 papers and chapters in a variety of international journals and books, and he has edited 10 books. He has also been granted more than 40 US patents with international counterparts. His papers have been cited about 7000 times; his ten most visible papers have been cited more than 2000 times.

Paul Ducheyne started his career in Europe. While at the K.U. Leuven, Belgium (1977 - 1983), he was one of the co-founders of the Post-Graduate Curriculum in Bioengineering. This program is now a full M.Sc. program in the School of Engineering and Applied Sciences. In those initial years, he was also chairman-founder of the chapter on Biomedical Engineering of the Belgian Engineering Society (Flemish section) and director of Meditek, the Flemish Government body created to promote Academia to Industry Technology Transfer in the area of Biomedical Engineering.

Paul Ducheyne founded Gentis, Inc., which focuses on breakthrough concepts for spinal disorders. Previously, he founded Orthovita (NASDAQ: VITA) in 1992 and served as Chairman of its Board of Directors until 1999. Orthovita focuses on bioceramic implant materials for orthopaedics.

Paul Ducheyne has been secretary of the European Society for Biomaterials, is Past President of the Society for Biomaterials (USA) and Past President of the International Society for Ceramics in Medicine. He has been recognized as a fellow of the American Association for the Advancement of Science (AAAS), fellow of the American Institute of Medical and Biological Engineering (AIMBE), and fellow of the International Association of Biomaterials Societies. He was the first Nanyang Visiting Professor at the Nanyang Institute of Technology, Singapore and he has received the C. William Hall Award from the Society for Biomaterials.

Many of Paul Ducheyne's trainees have become leaders of the next generation. Among his trainees are professors at the University of California at Berkeley, the University of Michigan, Columbia University, Georgia Institute of Technology, the K.U. Leuven (Belgium), etc... Among the six U.S. Associate Editors of the Journal for Biomedical Materials Research (the Journal of the Society for Biomaterials), three were his PhD students.

Kevin E. Healy, Ph.D. is the Jan Fandrianto Distinguished Professor in Engineering at the University of California at Berkeley in the Departments of Bioengineering and Materials Science and Engineering. He received a Bachelor of Science degree from the University of Rochester in Chemical Engineering in 1983. In 1985 he received a Masters of Science degree in Bioengineering from the University of Pennsylvania, and in 1990 he received a Ph.D. in Bioengineering also from the University of Pennsylvania. He was elected a Fellow of the American Institute of Medical and Biological Engineering in 2001. He has authored or co-authored more than 200 published articles, abstracts, or book chapters which emphasize the relationship between materials and the tissues they contact. His research interests include the design and synthesis of biomimetic materials that actively direct the fate of embryonic and adult stem cells, and facilitate regeneration of damaged tissues and organs. Major discoveries from his laboratory have centered on the control of cell fate and tissue formation in contract with materials that are tunable in both their biological content and mechanical properties. These materials find applications in medicine, dentistry, and biotechnology. He is currently an Associate Editor of the Journal of Biomedical Materials Research. He has served on numerous panels and grant review study sections for N.I.H. He has given more than 200 invited lectures in the fields of Biomedical Engineering and Biomaterials. He is a named inventor on numerous issued United States and international patents relating to biomaterials, and has founded several companies to develop materials for applications in biotechnology and regenerative medicine. Distinguished Professor Dietmar W. Hutmacher is the Director of the Centre of Regenerative Medicine and Director of the Australian Research Council Centre in Additive Biomanufacturing at the Queensland University of Technology (QUT). He holds a MBA from the Royal Henley Management College and a PhD from the National University of Singapore. His career so far has included extensive work in research and industry as well as in education and academia.

Hutmacher has expertise in biomaterials, biomedical engineering, and tissue engineering & regenerative medicine (TE&RM), and is also among the pioneers in the field of 3D printing in Medicine. He has published more than 250 journal articles, 24 book chapters, and 10 edited books.

In 2012 he was elected to join the highly esteemed International College of Fellows Biomaterials Science and Engineering, and to become one of the 23 founding members of the International Fellows of Tissue Engineering and Regenerative Medicine Society (TERMIS). In 2013, he received the highly prestigious Hans Fischer Senior Fellowship from the Technical University in Munich. He has been an Adjunct Professor at the Georgia Institute of Technology for over a decade. Serving on the editorial boards of leading journals in his fields, Hutmacher maintains strong relationships within the global biomaterials, TE&RM and cancer research community. Over the last 18 years, he has been invited to give more than 50 plenary and keynote lectures at national and international conferences, has served on 30 organising committees for international conferences, and chaired more than 80 sessions. A number of medical device and tissue engineering projects have been patented and commercialized under his mandate, and he is a founder of 5 spin off companies. David W. Grainger is the George S. and Dolores Dore“ Eccles Presidential Endowed Chair in Pharmaceutics and Pharmaceutical Chemistry, past Chair of the Department of Pharmaceutics and Pharmaceutical Chemistry, and Chair and Professor of Bioengineering at the University of Utah, USA.

Grainger received his Ph.D. in Pharmaceutical Chemistry from the University of Utah in 1987. With an Alexander von Humboldt Fellowship, he undertook postdoctoral research in biomembrane mimicry and assembly under Prof. Helmut Ringsdorf, University of Mainz, Germany.

Graingers research focuses on improving implanted medical device performance, drug delivery of new therapeutic proteins, nucleic acids and live vaccines, nanomaterials interactions with human tissues, low-infection biomaterials, and innovating diagnostic devices based on DNA and protein biomarker capture. He also has expertise in perfluorinated biomaterials and applications of surface analytical methods to biomedical interfaces, including surface contamination, micropatterns, and nanomaterials.

Grainger has published over 190 research papers at the interface of materials innovation in medicine and biotechnology, and novel surface chemistry. He has organized many international scientific symposia and chaired the Gordon Research Conference in Biomaterials and Tissue Engineering. He frequently lectures worldwide, including delivering many named, keynote, and plenary presentations.

Grainger serves on the editorial boards of four major journals in the biomedical materials field. He is currently a Council member at the National Institutes of Health, and has served on many national and international review panels, including the NIHs Surgery and Bioengineering and Emerging Bioanalytical and Imaging Technologies Scientific Review Groups. He remains active on academic scientific advisory boards for diverse academic programs in the United States, Asia, and Europe, including major research centers at the Universities of Wisconsin-Madison and University of Washington, the AO Foundation and EMPA, Switzerland, the Charité, Germany, several other competence centers in Europe.. Grainger also sits on the scientific advisory boards for four biomedical companies and actively consults internationally with industries in applications of materials in biotechnologies and medicine.

His scientific and technical accomplishments are widely recognized, both at his institution and worldwide. Among several citations, Grainger is fellow of the American Association for the Advancement of Science (AAAS), the American Institute of Medical and Biological Engineering (AIMBE), and the International Union of the Societies of Biomaterials Science and Engineering. He has also been honored with the 2007 Clemson Award for Basic Research, Society for Biomaterials, and the 2005 American Pharmaceutical Research and Manufacturers Associa- tions award for Excellence in Pharmaceutics.

C. James Kirkpatrick is Emeritus Professor of Pathology at the Johannes Gutenberg University of Mainz, Germany, having directed the Institute of Pathology from 1993-2015. Currently he is Senior Professor in the Cranio-Maxillofacial Surgery Clinic at the Goethe University of Frankfurt & Visiting Professor of Biomaterials & Regenerative Medicine at the University of Gothenburg, Sweden. He is also Honorary Professor at the Peking Union Medical College, Beijing and the Sichuan University, Chengdu, China.

Kirkpatrick is a graduate of the Queens University of Belfast and holds a triple doctorate in science and medicine (PhD: 1977; MD: 1982; DSc: 1992). Previous appointments were in pathology at the University of Ulm, where he did postdoctoral research in experimental pathology, Manchester University (Lecturer in Histopathology) and the RWTH Aachen (Professor of Pathology & Electron Microscopy).

On moving to Aachen in 1987, he established a cell culture laboratory which began using modern methods of cell and molecular biology to study how human cells react to biomaterials. Since then, his principal research interests continue to be in the field of biomaterials in tissue engineering and regenerative medicine, with special focus on the development of human cell culture techniques, including novel 3D coculture methodology for biomaterials and the application of modern molecular pathology techniques to the study of biofunctionality of biomaterials, including nanomaterials.

Kirkpatrick is author/coauthor of more than 500 publications in peer-reviewed journals and has given more than 500 invited presentations to scientific meetings worldwide. He has an H-index of 58 (Web of Science) and 68 (Google Scholar) and has been cited more than 17.000 times.

He is a former president of both the German Society for Biomaterials (20012005) and the European Society for Biomaterials (20022007) and served on the ESB council from 1995-2013. He was also a member of the Council of the European Chapter of the Tissue Engineering & Regenerative Medicine International Society (TERMIS-EU; 2006-2008; 2010-2012).

Kirkpatrick was a long-standing member of the editorial board of the premier journal Biomaterials (1996-2014) and also associate editor (2002-2014). He has also served as associate editor of the leading Journal of Pathology (20012006). In total, he serves or has served as an editorial board member of 18 international journals in pathology, biomaterials, and tissue engineering.

Kirkpatrick was the Scientific Programme Committee Chair for the 8th World Biomaterials Congress in Amsterdam in 2008.

Kirkpatrick is a member of the Scientific Advisory Board of a number of research institutes, centres of excellence and companies in biomaterials and regenerative medicine in Europe, as well as the Medical Technology Committee, Federal Ministry of Education & Research in Germany (BMBF) (2005-2008) and the German Federal Institute for Drugs & Medical Devices (BfArM)(since 2007).

Kirkpatrick has been recognized for his contributions. He is a Fellow of the Royal College of Pathologists, London and a Fellow of Biomaterials Science & Engineering (FBSE) of the IUS-BSE (International Union of Societies for Biomaterials Science & Engineering). He received the Research Prize of the State of Rhineland-Palatinate for Research on Replacement and Alternative Methods for Animal Research. He was the recipient of the George Winter Award from the European Society for Biomaterials (2008), and in 2010, he received, as first medical graduate, the Chapman Medal from the Institute of Materials, Minerals & Mining in London for distinguished research in the field of biomedical materials”. In 2014 Kirkpatrick received the TERMIS-EU Career Achievement Award.