Tissue Engineering

De Boer, Jan; Blitterswijk, Clemens Van; Thomsen, Peter; Hubbell, Jeffrey; Cancedda, Ranieri; de Bru

In stock
Regular price 18.750 KD inc. VAT
License
Table of contents
  • Contentsv
  • List of contributorsvii
  • Forewordxi
  • Tissue engineering – an introductionxiii
  • Chapter 1 Stem cells1
  • Chapter objectives1
  • 1.1 What defines a stem cell?2
  • 1.2 Embryonic stem cells9
  • 1.3 Adult stem cells17
  • 1.4 Future perspective23
  • 1.5 Snapshot summary24
  • References24
  • Chapter 2 Morphogenesis, generation of tissue in the embryo27
  • Chapter objectives27
  • 2.1 Introduction28
  • 2.2 Cardiac development34
  • 2.3 Blood vessel development38
  • 2.4 Development of the peripheral nerve tissue42
  • 2.5 Embryonic skin development47
  • 2.6 Skeletal formation55
  • 2.7 Future developments64
  • 2.8 Summary65
  • References66
  • Chapter 3 Tissue homeostasis73
  • Chapter objectives73
  • 3.1 Introduction74
  • 3.2 Tissues with no potential of regeneration76
  • 3.3 Tissues with slow regeneration time76
  • 3.4 Tissues with a high capacity of regeneration77
  • 3.5 Tissues where regeneration was not considered – the paradigm shift in tissue regeneration79
  • 3.6 Consequence of regeneration potential for the tissue engineering concept81
  • 3.7 Cell migration of TA cells85
  • 3.8 Future developments86
  • 3.9 Summary86
  • References86
  • Chapter 4 Cellular signaling89
  • Chapter objectives89
  • 4.1 General introduction90
  • 4.2 Cellular signaling in skin biology94
  • 4.3 Cellular signaling in vascular biology99
  • 4.4 Cellular signaling in bone biology104
  • 4.5 Cellular signaling in cartilage biology108
  • 4.6 Future developments: Understanding and implementing principles of cellular signaling in tissue e115
  • 4.7 Summary118
  • References118
  • Chapter 5 The extracellular matrix as a biologic scaffold for tissue engineering121
  • Chapter objectives121
  • 5.1 Introduction122
  • 5.2 Extracellular matrix123
  • 5.3 Preparation of ECM131
  • 5.4 Biologic activities of ECM scaffolds133
  • 5.5 Commercially available scaffolds composed of extracellular matrix137
  • 5.6 Future considerations137
  • 5.7 Summary140
  • References140
  • Chapter 6 Natural polymers in tissue engineering applications145
  • Chapter objectives145
  • 6.1 Introduction146
  • 6.2 Natural polymers146
  • 6.3 Polysaccharides149
  • 6.4 Proteins167
  • 6.5 Polyhydroxyalkanoates178
  • 6.6 Future developments180
  • 6.7 Summary180
  • References180
  • Chapter 7 Degradable polymers for tissue engineering193
  • Chapter objectives193
  • 7.1 Introduction and background194
  • 7.2 Synthesis and properties of polymers195
  • 7.3 (Bio)degradable polymers201
  • 7.4 Mechanisms of polymer degradation and erosion204
  • 7.5 Future perspectives217
  • 7.6 Summary217
  • References217
  • Chapter 8 Degradation of bioceramics223
  • Chapter objectives223
  • 8.1 Introduction224
  • 8.2 Degradation mechanisms of calcium phosphate ceramics227
  • 8.3 Degradation mechanisms of bioactive glasses234
  • 8.4. Translation to bone tissue engineering systems241
  • 8.5 Future developments: tailoring the resorption kinetic of bioceramics for optimal bone regenerati246
  • 8.6 Summary249
  • References249
  • Chapter 9 Biocompatibility255
  • Chapter objectives255
  • 9.1 Introduction256
  • 9.2 The evolution of current concepts of biocompatibility256
  • 9.3 The agents of biocompatibility257
  • 9.4 Tissue engineering scaffolds and matrices264
  • 9.5 General discussion of biocompatibility in tissue engineering274
  • 9.6 Future perspectives276
  • 9.7 Summary276
  • References277
  • Chapter 10 Cell source279
  • Chapter objectives279
  • 10.1 Evidence for the presence of stem cells in adult tissues280
  • 10.2 Hemopoietic stem cell niche(s)282
  • 10.3 Epithelial stem cell and their niches284
  • 10.4 Neuronal stem cell and their niches288
  • 10.5 Mesenchymal stem cells and their niches289
  • 10.6 Adult stem cells can cross lineage-specific boundaries295
  • 10.7 Expansion of the stem cell compartment through cell culture296
  • 10.8 Can we use allogeneic or xenogeneic stem cells?298
  • 10.9 Nuclear transfer and generation of 'self' embryonic stem cells302
  • 10.10 Conclusions and perspectives302
  • 10.11 Summary303
  • References304
  • Chapter 11 Cell culture: harvest, selection, expansion, and differentiation307
  • Chapter objectives327
  • 11.1 Introduction308
  • 11.2 Harvest309
  • 11.3 Selection313
  • 11.4 Expansion315
  • 11.5 Differentiation318
  • 11.6 Future developments322
  • 11.7 Summary322
  • References323
  • Chapter 12 Cell nutrition327
  • Chapter objectives327
  • 12.1 Introduction328
  • 12.2 Cell culture media329
  • 12.3 Directing cellular behavior by culture medium composition333
  • 12.4 Mass transport337
  • 12.5 Nutrient gradients in tissue engineering341
  • 12.6 Strategies to improve nutrient supply343
  • 12.7 Future development: experimental modeling of nutritional problems in tissue engineering355
  • Acknowledgments359
  • References359
  • Chapter 13 Cryobiology363
  • Chapter objectives363
  • Abstract364
  • 13.1 Introduction to fundamentals of cryobiology364
  • 13.2 Technology based on the freezing concept369
  • 13.3 Vitrification technology371
  • 13.4 Safety issues in cryopreservation382
  • 13.5 Cryopreservation: practical aspects385
  • 13.6 Future considerations397
  • 13.7 Summary397
  • References398
  • Chapter 14 Scaffold design and fabrication403
  • Chapter objectives403
  • 14.1 Introduction404
  • 14.2 Scaffold design405
  • 14.3 Scaffold fabrication414
  • 14.4 Textile technologies426
  • 14.5 Solid free-form fabrication433
  • 14.6 Conclusions448
  • References449
  • Chapter 15 Controlled release strategies in tissue engineering455
  • Chapter objectives455
  • 15.1 Introduction456
  • 15.2 Bioactive factors admixed with matrices462
  • 15.3 Bioactive factors entrapped within gel matrices465
  • 15.4 Bioactive factors entrapped within hydrophobic scaffolds or microparticles469
  • 15.5 Bioactive factors bound to affinity sites within matrices474
  • 15.6 Bioactive factors covalently bound to matrices475
  • 15.7 Summary478
  • References479
  • Chapter 16 Bioreactors for tissue engineering483
  • Chapter objectives483
  • 16.1 Introduction484
  • 16.2 Key functions of bioreactors in tissue engineering484
  • 16.3 Bioreactor design and development492
  • 16.4 Bioreactors as 3D in vitro model systems495
  • 16.5 Bioreactors in clinical applications501
  • 16.6 Future perspectives for bioreactors in tissue engineering503
  • 16.7 Summary504
  • References505
  • Chapter 17 Tissue engineering for skin transplantation507
  • Chapter objectives507
  • 17.1 Introduction508
  • 17.2 Structure of the epidermis508
  • 17.3 Keratins510
  • 17.4 Structure of the dermo-epidermal junction510
  • 17.5 In vitro keratinocyte culture512
  • 17.6 Decreasing immunogenicity within cultured keratinocytes515
  • 17.7 Development of in vivo grafting515
  • 17.8 Failure of keratinocyte 'take'516
  • 17.9 Enhanced dermal grafting517
  • 17.10 The future of tissue-engineered skin525
  • 17.11 Summary526
  • References526
  • Chapter 18 Tissue engineering of cartilage533
  • Chapter objectives533
  • 18.1 Introduction534
  • 18.2 Composition of adult hyaline human articular cartilage535
  • 18.3 Cartilage components536
  • 18.4 Pathophysiology of cartilage lesion development540
  • 18.5 Artificial induction of cartilage repair541
  • 18.6 What type of chondrogeneic cells are ideal for cartilage engineering?545
  • 18.7 Scaffolds in cartilage tissue engineering547
  • 18.8 Bioreactors in cartilage tissue engineering552
  • 18.9 Growth factors that stimulate chondrogenesis554
  • 18.10 Future developments555
  • 18.11 Summary555
  • References556
  • Chapter 19 Tissue engineering of bone559
  • Chapter objectives559
  • 19.1 Introduction: bone560
  • 19.2 Strategies for bone tissue engineering567
  • 19.3 Steps in bone tissue engineering research – from idea to patient581
  • 19.4 Current status of bone tissue engineering595
  • 19.5 Summary599
  • References601
  • Chapter 20 Tissue engineering of the nervous system611
  • Chapter objectives611
  • 20.1 Introduction612
  • 20.2 Peripheral nerve612
  • 20.3 CNS: spinal cord622
  • 20.4 CNS: optic nerve injury model635
  • 20.5 CNS: retina636
  • 20.6 CNS: brain640
  • 20.7 Animal models641
  • 20.8 Future approaches642
  • 20.9 Summary643
  • References644
  • Chapter 21 Tissue engineering of organ systems649
  • Chapter objectives649
  • 21.1 Introduction650
  • 21.2 Urogenital tissue engineering650
  • 21.3 Liver tissue engineering661
  • 21.4 Lung tissue engineering667
  • 21.5 Gut tissue engineering670
  • 21.6 Pancreas tissue engineering674
  • 21.7 Future developments678
  • 21.8 Summary679
  • References679
  • Chapter 22 Ethical issues in tissue engineering685
  • Chapter objectives685
  • 22.1 Introduction686
  • 22.2 Morality, ethics and values688
  • 22.3 Moral problems relating to the source of material for tissue engineering690
  • 22.4 Further moral considerations701
  • 22.5 Some questions for the future702
  • Notes702
  • References703
  • Multiple Choice Questions705
  • Index727
  • A727
  • B727
  • C729
  • D731
  • E731
  • F732
  • G732
  • H733
  • I733
  • K734
  • L734
  • M734
  • N734
  • O735
  • P735
  • R737
  • S737
  • T738
  • U739
  • V739
  • W740
  • X740
  • Z740
Book details
  • Vendor Elsevier S & T
  • SKU 9780123708694R150
  • ISBN-13 9780080559193
  • Author De Boer, Jan; Blitterswijk, Clemens Van; Thomsen, Peter; Hubbell, Jeffrey; Cancedda, Ranieri; de Bru
  • Category Medical
  • Subject Biotechnology

Do you have questions about this book?

Ask an expert!

Tissue Engineering is a comprehensive introduction to the engineering and biological aspects of this critical subject. With contributions from internationally renowned authors, it provides a broad perspective on tissue engineering for students and professionals who are developing their knowledge of this important topic. Key topics covered include stem cells; morphogenesis and cellular signaling; the extracellular matrix; biocompatibility; scaffold design and fabrication; controlled release strategies; bioreactors; tissue engineering of skin, cartilage, bone and organ systems; and ethical issues.

• Covers all the essentials from tissue homeostasis and biocompatibility to cardiovascular engineering and regulations
• 22 chapters from internationally recognized authors, provide a comprehensive introduction for engineers and life scientists, including biomedical engineers, chemical and process engineers, materials scientists, biologists and medical students
• Full colour throughout, with clear development of understanding through frequent examples, experimental approaches and the latest research and developments.