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Surfaces and Interfaces for Biomaterials

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Given such problems as rejection, the interface between an implant and its human host is a critical area in biomaterials. Surfaces and Interfaces for Biomaterials summarizes the wealth of research on understanding the surface properties of biomaterials and the way they interact with human tissue.

The first part of the book reviews the way biomaterial surfaces form. Part Two then discusses ways of monitoring and characterizing surface structure and behavior. The final two parts of the book look at a range of "in vitro" and "in vivo" studies of the complex interactions between biomaterials and the body. Chapters cover such topics as bone and tissue regeneration, the role of interface interactions in biodegradable biomaterials, microbial biofilm formation, vascular tissue engineering and ways of modifying biomaterial surfaces to improve biocompatibility.

Surfaces and Interfaces for Biomaterials will be a standard work on how to understand and control surface processes in ensuring biomaterials are used successfully in medicine.

Contributor contact detailsp. xv
Prefacep. xxi
Forming methods
Fundamental properties of surfacesp. 3
Introductionp. 3
Experimental considerationsp. 4
Surface characteristicsp. 14
Active sites and kineticsp. 15
Controlling crystal growth: semiconductor technologyp. 17
Heterogeneous catalysisp. 20
Real surfaces: theoretical advancesp. 23
Real surfaces: experimental approachesp. 24
Insight into the biological activity of surfacesp. 25
Conclusionp. 27
Referencesp. 27
Control of polymeric biomaterial surfacesp. 29
Introductionp. 29
Preparation of polymersp. 29
The solid state and structurep. 32
Polymer-solvent interactionsp. 35
The polymeric surface and surface-bulk differencep. 38
The general properties of a biomaterial surfacep. 39
Modification of polymer surfacesp. 40
Surface analysisp. 50
Surface properties and biomaterials applicationsp. 56
Conclusionp. 57
Referencesp. 57
Organic thin film architectures: fabrication and propertiesp. 60
Introductionp. 60
Established deposition methodsp. 61
Molecular architecturesp. 65
Molecular organization in thin filmsp. 71
Future trendsp. 78
Further informationp. 79
Referencesp. 79
Membranes and permeable filmsp. 83
Introductionp. 83
Materials and applicationsp. 83
Membrane characterisationp. 89
Blood material contactp. 92
Biological events at the membrane and thin film blood interfacep. 93
Improvement of biocompatibilityp. 99
Conclusionp. 99
Referencesp. 100
Stable use of biosensors at the sample interfacep. 103
Introductionp. 103
Biosensor limitationsp. 104
Biocompatibilityp. 105
Materials interfacing strategyp. 116
Membrane systems used in biosensorsp. 119
Microflows as surrogate, renewable barrier filmsp. 138
Microfluidics and biosensorsp. 140
Conclusionp. 146
Acknowledgementsp. 147
Referencesp. 147
Micro- and nanoscale surface patterning techniques for localising biomolecules and cells: the essence of nanobiotechnologyp. 150
Introductionp. 150
Lithographic patterning with photons, particles and scanning probesp. 152
Soft lithographic techniquesp. 158
Colloidal-based fabrication techniquesp. 168
Template-imprinted nanostructured surfacesp. 169
Conclusionp. 169
Referencesp. 171
Measurement, monitoring and characterisation
Surface spectroscopiesp. 183
Introductionp. 183
Surfacesp. 183
Optical detection methodsp. 186
Biomolecular interaction analysisp. 190
Conclusionp. 196
Referencesp. 197
Surface microscopiesp. 200
Introductionp. 200
Electron microscopiesp. 208
Scanning probe microscopiesp. 211
Optical microscopiesp. 218
Future trendsp. 219
Further informationp. 220
Referencesp. 220
Nanoindentationp. 225
Introductionp. 225
Instrumentationp. 225
Data analysisp. 229
Thin films and coatingsp. 235
Hard biological materialsp. 236
Soft biological materialsp. 240
Conclusionp. 241
Further informationp. 242
Referencesp. 242
Surface plasmon resonancep. 248
Introductionp. 248
Surface plasmon resonance phenomenonp. 249
Surface functionalizationp. 257
Applicationsp. 261
Conclusionp. 264
Acknowledgementsp. 265
Referencesp. 265
Ellipsometry for optical surface study applicationsp. 271
Introductionp. 271
History of ellipsometry and polarisation controlp. 278
Fibre based polarisation modulated ellipsometryp. 282
A high birefringence fibre polarisation modulation ellipsometryp. 285
Future trendsp. 292
Sources of further informationp. 292
Referencesp. 294
Neutron reflectionp. 299
Introductionp. 299
Neutron reflection and deuterium labellingp. 300
Peptide interfacial assemblyp. 303
Lysozyme adsorption: the effect of surface chemistryp. 305
Effect of size of globular proteins on their adsorptionp. 314
Conclusionp. 315
Acknowledgementsp. 317
Referencesp. 317
Microgravimetryp. 322
Introductionp. 322
Quartz crystal microbalance techniquep. 322
Analytical applications of QCMp. 332
Combination of QCM with other techniquesp. 355
Acoustic/piezoelectric sensorsp. 357
Future development of piezoelectric sensorsp. 359
Thermal gravimetryp. 360
Non-QCM adsorption methodsp. 361
Dynamic contact angle measurementsp. 362
Conclusionp. 366
Acknowledgementsp. 366
Referencesp. 366
Surface interaction and in-vitro studies
Interaction between biomaterials and cell tissuesp. 389
Introductionp. 389
Surface properties of biomedical materialsp. 389
Surface analyses of biomedical materialsp. 393
Design for non-biofouling surfacep. 399
How to connect tissues with biomaterialsp. 405
Conclusionp. 410
Referencesp. 411
Blood flow dynamics and surface interactionsp. 414
Clinical application and problems of medical devices in contact with bloodp. 414
Surface interactions of bloodp. 418
Role of blood cells during flow: rolling of cells, effect of concentration of erythrocytes, expression of adhesive cell receptorsp. 422
Biomaterial surface characteristics in relation to haemocompatibility and clinical applicationsp. 423
Haemocompatibility of metals, ceramics and polymersp. 425
Biological surface treatment to improve haemocompatibilityp. 427
ISO 10993 requirements for testing of medical devices: simulation of clinical application including flow, blood composition, anticoagulantsp. 431
Test models: static, low flow, arterial flow, pulsatile/laminar flowp. 432
Conclusionp. 434
Referencesp. 435
Cell guidance through surface cuesp. 447
Introductionp. 447
Surface functionalizationp. 451
Patterning of chemical surface cuesp. 454
Synaptic connections in patterned neuronal networks: communication along predefined pathwaysp. 458
Conclusionp. 461
Referencesp. 462
Controlled cell deposition techniquesp. 465
Introductionp. 465
In-vivo and in-vitro cell interactionsp. 466
Two-dimensional controlled cell deposition techniquesp. 468
Three-dimensional controlled cell deposition techniquesp. 480
Future trendsp. 483
Further informationp. 484
Referencesp. 486
Biofouling in membrane separation systemsp. 493
Introductionp. 493
Membrane separation - concepts and applicationsp. 495
Fouling mechanisms and factors affecting foulingp. 500
Biofoulingp. 508
Fouling controlp. 513
Conclusion and future trendsp. 529
Referencesp. 530
Surface interactions and in-vivo studies
Bioactive 3D scaffolds in regenerative medicine: the role of interface interactionsp. 545
Introductionp. 545
The need for biomedical materials and implantsp. 545
Surgical procedures for bone repairp. 547
Surgical procedures in lung repairp. 550
A new direction: regenerative medicinep. 551
Bone regenerationp. 552
Tissue engineering of the lungp. 561
Conclusionp. 567
Acknowledgementsp. 568
Referencesp. 568
Intravascular drug delivery systems and devices: interactions at biointerfacep. 573
Introductionp. 573
Biomaterials and biointerfacep. 573
Intravascular drug delivery systemsp. 575
Nanoparticles as an intravascular delivery systemp. 575
Stentsp. 580
Vascular grafts and cathetersp. 581
Future trendsp. 581
Referencesp. 582
Surface degradation and microenvironmental outcomesp. 585
Introductionp. 585
Chemistry of synthetic biodegradable biomaterialsp. 587
In-vitro degradation of synthetic biodegradable biomaterialsp. 589
In-vivo biodegradation of synthetic biodegradable biomaterials and cell/biomaterial surface interactionp. 601
Conclusionp. 614
Referencesp. 614
Microbial biofilms and clinical implantsp. 619
Introductionp. 619
Epidemology and costs of infection associated with clinical implantsp. 620
Microbiology of clinical implant infectionsp. 621
Molecular mechanisms underlying biofilm formationp. 622
Determinants of biofilm antibiotic resistancep. 624
Consequences of biofilm formation on clinical implantsp. 624
Clinical implant infectionp. 625
Prevention of biofilm formation on clinical implantsp. 627
Further researchp. 630
Information resourcesp. 630
Referencesp. 631
Extracellular matrix molecules in vascular tissue engineeringp. 637
Introductionp. 637
Natural blood vesslesp. 638
Vascular tissue engineeringp. 641
Coating ECM molecules on surfaces - a cautionary talep. 646
Biological seeding materialsp. 651
ECM-regulated delivery of therapeutic growth factorsp. 657
Future trendsp. 658
Acknowledgementsp. 658
Referencesp. 659
Biomineralisation processesp. 666
Introductionp. 666
'Biologically-induced' and 'organic matrix-mediated' mineralisationp. 667
Organic macromoleculesp. 667
Control over crystal structurep. 671
Control over crystal orientationp. 674
Control over morphologyp. 676
Control over mechanical propertiesp. 686
Conclusionp. 687
Further informationp. 688
Referencesp. 688
On the topographical characterisation of biomaterial surfacesp. 693
Introductionp. 693
Biomaterials, surfaces and biocompatibilityp. 693
What is a surface?p. 694
Surface measurementp. 694
Filtersp. 695
Quantifying surface texturep. 696
Two-dimensional profile datap. 696
Three-dimensional datap. 700
Techniques for surface texture measurementp. 703
Traceability and calibrationp. 713
Conclusionp. 713
Further readingp. 714
Acknowledgmentsp. 715
Referencesp. 715
Appendices
Surface modification of polymers to enhance biocompatibilityp. 719
Introductionp. 719
Polymers in medical applicationsp. 720
Biocompatibilityp. 722
Surface modification techniquesp. 723
Future trendsp. 740
Acknowledgementsp. 741
Referencesp. 741
Issues concerning the use of assays of cell adhesion to biomaterialsp. 745
Introductionp. 745
Measurement objectivesp. 746
Issues of interpretation of adhesion measurementsp. 750
Sources of variability in adhesion assaysp. 753
Methods of assaying cell adhesion in current usep. 757
Conclusionp. 760
Referencesp. 761
Protein adsorption to surfaces and interfacesp. 763
Introductionp. 763
Classification of biomaterials surfaces and interfacesp. 764
Non-specific adsorption to hard surfacesp. 765
General rules of non-specific adsorption to flat surfacesp. 768
Non-specific adsorption to 'soft' surfacesp. 773
Non-specific adsorption to penetrable surfaces and interfacesp. 774
Future trendsp. 775
Referencesp. 776
Indexp. 782
Table of Contents provided by Ingram. All Rights Reserved.

ISBN: 9780849334467
ISBN-10: 0849334462
Audience: Professional
Format: Hardcover
Language: English
Number Of Pages: 802
Published: 14th June 2005
Dimensions (cm): 23.5 x 16.1  x 4.9
Weight (kg): 1.346