Donald L. Wise,Editors, ,Biomaterials and Bioengineering Handbook (2000) Marcel Dekker Inc 0 8247...

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BOOK REVIEWS Biomaterials and Bioengineering Handbook Donald L Wise (ed) Marcel Dekker Inc, 2000 920 pp, $235, ISBN 0 8247 0318 9 Reviewed by Marcus Smith and Julian Chaudhuri (University of Bath, UK) Biomedical engineering is increasingly bene ting from the involvement of chemical engineers. Exciting elds such as tissue engineering, controlled release drug delivery and cell therapy are well known for the contributions made by chemical engineering science. A key factor in these areas is an understanding of the interaction between biocompa- tible materials and human cells, tissues or uids. This enables the choice and modi cation of materials that will be subsequently incorporated in biomedical devices, some of which will be implanted into humans. The Biomaterials and Bioengineering Handbook consists of a number of review chapters that cover biomaterials and biocompatibility issues; case studies of orthopedic bio- materials; speci c biomedical applications; and functional biomaterials. This is a multi-authored book that contains 41 chapters written by researchers and practitioners of bioma- terials development. This is not a laboratory handbook, but a reference book, that can be used to get an overview of the central issues in the eld, but is more likely to be used to obtain detailed information. The volume is divided into nine main sections: biomater- ials and biocompatiblity; evaluation of biomaterials; bio- materials as delivery vehicles; ceramics and metals in orthopaedics; orthopaedic xation devices; materials for reconstructing bony defects; collagen materials; biomater- ials and skin applications; and a section which looks to the past and the future. The range of biomaterials included here are natural and synthetic polymers, ceramics and metals. The material has been put together with a focus on ortho- paedic developments—the inclusion of a section on skin- based biomaterials seems out of place. Lots of other applications have been omitted, for example arterial and vascular prostheses, and nerve guidance systems to name just two. This book is not designed for readers unfamiliar with the eld: it is not an explanatory textbook on the subject. Having said that, the rst 300 pages of the book present general considerations that are relevant to anyone working with biomaterials of some sort. The editor has achieved the potentially mammoth task of concisely presenting many critical areas of biomaterials but has also reinforced this information with case studies and recent research results. The result is an array of chapters that demonstrates the inter- disciplinary nature of the eld. The chapters appear to be application-oriented and re ect the multi-disciplinary nature of this eld. There is a thorough integration of basic science, engineering and clinical information, which includes much detailed informa- tion and data. Most of the chapters provide comprehensive background to the speci c topic which allows access to the book at any point. The contributions are well presented, and are extensively referenced, allowing the reader to delve further into the eld. There is an ever increasing number of multi-authored, edited books on aspects of biomedical and tissue engineering. It is rare, if not impossible, to nd one that covers and integrates all aspects of the eld, i.e. biomater- ials, cell biology, clinical considerations, device design, regulatory issues. This book is useful in that it has focused on one key aspect—biomaterials—and has treated it in detail, in relation to the other underlying disciplines. This volume will be useful to those who are starting work in the area of biomaterials and have prior experience in materials science, biomedical engineering or relevant clinical specialities. For the engineer, the amount of detail, and relevant design criteria will make it an important addition to the bookshelf. Thermal Processing of Bio-Materials Tadeusz Kudra and Czeslaw Strumillo (eds) Gordon and Breach Science Publishers, 1998 669 pp, £75, ISBN 90 5699 105 1 Reviewed by Professor Peter Fryer (University of Birmingham, UK) Written by an international team of mostly Polish and Canadian researchers, this book attempts to describe the range of thermal processes which biomaterials can undergo. This is obviously a huge area, so that many of the chapters have been the subject of many books themselves. The rst sections of the book contain chapters on sterilization and pasteurization, evaporation, drying, chilling and freezing, describing the type of equipment used and simple engineer- ing models for their speci cation and design. These are supported by discussion on the characteristic properties of biomaterials that affect their thermal properties, and on the basis of heat transfer and process design. The breadth of the material covered and the number of authors used creates some dif culties: for example, the de nition of biomaterial used in the early chapters is primarily that of microorganisms. Later in the book, however, a number of the application areas discussed (such as freezing and evaporation) are discussed as essen- tially food processing operations. The links between food and other bioproduct processing are thus made implicitly rather than explicitly. Each chapter is self-contained, so this is not a severe problem; for example, the drying section, at 169 Trans IChemE, Vol 78, Part C, September 2000

Transcript of Donald L. Wise,Editors, ,Biomaterials and Bioengineering Handbook (2000) Marcel Dekker Inc 0 8247...

Page 1: Donald L. Wise,Editors, ,Biomaterials and Bioengineering Handbook (2000) Marcel Dekker Inc 0 8247 0318 9 920 pp $235.

BOOK REVIEWS

Biomaterials and Bioengineering HandbookDonald L Wise (ed)Marcel Dekker Inc, 2000920 pp, $235, ISBN 0 8247 0318 9

Reviewed by Marcus Smith and Julian Chaudhuri(University of Bath, UK)

Biomedical engineering is increasingly bene� ting from theinvolvement of chemical engineers. Exciting � elds such astissue engineering, controlled release drug delivery and celltherapy are well known for the contributions made bychemical engineering science. A key factor in these areasis an understanding of the interaction between biocompa-tible materials and human cells, tissues or � uids. Thisenables the choice and modi� cation of materials that will besubsequently incorporated in biomedical devices, some ofwhich will be implanted into humans.

The Biomaterials and Bioengineering Handbook consistsof a number of review chapters that cover biomaterials andbiocompatibility issues; case studies of orthopedic bio-materials; speci� c biomedical applications; and functionalbiomaterials. This is a multi-authored book that contains 41chapters written by researchers and practitioners of bioma-terials development. This is not a laboratory handbook, buta reference book, that can be used to get an overview of thecentral issues in the � eld, but is more likely to be used toobtain detailed information.

The volume is divided into nine main sections: biomater-ials and biocompatiblity; evaluation of biomaterials; bio-materials as delivery vehicles; ceramics and metals inorthopaedics; orthopaedic � xation devices; materials forreconstructing bony defects; collagen materials; biomater-ials and skin applications; and a section which looks to thepast and the future. The range of biomaterials included hereare natural and synthetic polymers, ceramics and metals.The material has been put together with a focus on ortho-paedic developments—the inclusion of a section on skin-based biomaterials seems out of place. Lots of otherapplications have been omitted, for example arterial andvascular prostheses, and nerve guidance systems to namejust two.

This book is not designed for readers unfamiliar with the� eld: it is not an explanatory textbook on the subject.Having said that, the � rst 300 pages of the book presentgeneral considerations that are relevant to anyone workingwith biomaterials of some sort. The editor has achieved thepotentially mammoth task of concisely presenting manycritical areas of biomaterials but has also reinforced thisinformation with case studies and recent research results.The result is an array of chapters that demonstrates the inter-disciplinary nature of the � eld.

The chapters appear to be application-oriented and re� ectthe multi-disciplinary nature of this � eld. There is a

thorough integration of basic science, engineering andclinical information, which includes much detailed informa-tion and data. Most of the chapters provide comprehensivebackground to the speci� c topic which allows access to thebook at any point. The contributions are well presented, andare extensively referenced, allowing the reader to delvefurther into the � eld.

There is an ever increasing number of multi-authored,edited books on aspects of biomedical and tissueengineering. It is rare, if not impossible, to � nd one thatcovers and integrates all aspects of the � eld, i.e. biomater-ials, cell biology, clinical considerations, device design,regulatory issues. This book is useful in that it has focusedon one key aspect—biomaterials—and has treated it indetail, in relation to the other underlying disciplines. Thisvolume will be useful to those who are starting work in thearea of biomaterials and have prior experience in materialsscience, biomedical engineering or relevant clinicalspecialities. For the engineer, the amount of detail, andrelevant design criteria will make it an important addition tothe bookshelf.

Thermal Processing of Bio-MaterialsTadeusz Kudra and Czeslaw Strumillo (eds)Gordon and Breach Science Publishers, 1998669 pp, £75, ISBN 90 5699 105 1

Reviewed by Professor Peter Fryer(University of Birmingham, UK)

Written by an international team of mostly Polish andCanadian researchers, this book attempts to describe therange of thermal processes which biomaterials can undergo.This is obviously a huge area, so that many of the chaptershave been the subject of many books themselves. The � rstsections of the book contain chapters on sterilization andpasteurization, evaporation, drying, chilling and freezing,describing the type of equipment used and simple engineer-ing models for their speci� cation and design. These aresupported by discussion on the characteristic properties ofbiomaterials that affect their thermal properties, and on thebasis of heat transfer and process design.

The breadth of the material covered and the number ofauthors used creates some dif� culties: for example, thede� nition of biomaterial used in the early chapters isprimarily that of microorganisms. Later in the book,however, a number of the application areas discussed(such as freezing and evaporation) are discussed as essen-tially food processing operations. The links between foodand other bioproduct processing are thus made implicitlyrather than explicitly. Each chapter is self-contained, so thisis not a severe problem; for example, the drying section, at

169Trans IChemE, Vol 78, Part C, September 2000