This book, the first in this new field of materials science, aims to present a coherent picture of the design principles and resulting properties of self healing materials over all material classes, and to offset them to the current design principles for structural materials with improved mechanical properties. Where appropriate a comparison to natural materials is made. As such it will be a landmark and a reference work in the coming years.
The book consists of a number of invited contributions from leading experts in the field. While each chapter describes a separate approach or a different aspect of self healing materials, the common structure of each chapter creates a coherent and consistent picture of this emerging and challenging field. Hence the book is not only a valuable asset for professional materials scientists but it is also suitable as a text book for courses at MSc level.
Related subjects » Biomaterials - Materials - Mechanics - Polymer Science - Production & Process Engineering - Structural Materials
TABLE OF CONTENTS
Foreword; M.F. Ashby
Preface
1. Introduction to material design principles; S. van der Zwaag
2. Self healing polymers and composites; H.M. Andersson, M.W. Keller, J.S. Moore, N.R. Sottos and S.R. White
3. Remendable polymers; S.D. Bergman and F. Wudl
4. Thermally induced self healing of thermosetting resins and matrices in smart composites; F.R. Jones, W. Zhang and S.A. Hayes
5. Ionomers as self healing polymers; R. Varley
6. Self healing fibre reinforced polymer composites: an overview; I.P. Bond, R.S. Trask, H.R. Williams and G.R. Williams
7. Self healing polymer coatings; R.A.T.M. van Benthem, W. Ming and G. de With
8. Self healing in concrete materials; V.C. Li and E. Yang
9. Self healing concrete: a biological approach; H.M. Jonkers
10. Exploring mechanisms of healing in asphalt mixtures and quantifying its impact; D. N. Little and A. Bhasin
11. Self healing in aluminium alloys; R. Lumley
12. Crack and void healing in metals; H. Wang, P. Huang and Z. Li
13. Advances in transmission electron microscopy: self healing, or is prevention better than cure; J.Th.M. de Hosson and H.Y. Yasuda
14. Self healing in coatings at high temperatures; W.G. Sloof
15. Hierarchical structure and repair of bone: deformation, remodeling, healing; P. Fratzl and R. Weinkamer
16. Modelling of self healing of skin tissue; F.J. Vermolen, W.G. van Rossum, E. Javierre and J.A. Adam
17. Numerical models for self healing mechanisms; J.J.C. Remmers and R. de Borst
About the authors
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This International Standard specifies general principles for the verification of the reliability of structures subjected to
known or foreseeable types of action. Reliability is considered in relation to the performance of the structure
throughout its design working life.
The general principles are applicable to the design of complete structures (buildings, bridges, industrial structures,
etc.), the structural elements making up the structure and the foundations.
This International Standard is also applicable to the successive stages in construction, namely the fabrication of
structural elements, the transport and handling of the structural elements, their erection and all work on site, as well
as the use of the structure during its design working life, including maintenance and repair.
To allow for the differences in design practice between different countries, the national standards or codes of
practice may be simpler or more detailed in comparison with this International Standard.
Generally the principles are also applicable to the structural appraisal of existing constructions or assessing
changes of use. However in some respects this is associated with special aspects of the basic variables and
calculation models. Such aspects are considered in clause 10.
NOTE — When this International Standard is applied in a particular country for the development of its standards, it is
admissible not to use those clauses which are not in accordance with the regulations of that particular country.
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This book is an updated, revised version of a highly successful text published in 1971 by the same authors. The fundamentals of creep deformation, rupture and component analysis of the first edition have been updated and re-organised. After reviewing developments in high temperature design over the last 20 years, substantial new material is presented on factors affecting continuum damage, fracture, fatigue and their interactions. Progress in the integration of new concepts into rational design procedures is analysed in a major new chapter with particular reference to better known codes of practice used internationally.
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Statistical Modeling of Coupled Shear-Moment Resistance for RC Bridge Girders
J. Bridge Engrg. Volume 13, Issue 4, pp. 351-361 (July/August 2008)
by: O. Tugrul Turan, Christopher Higgins and David V. Rosowsky
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Seismic response of composite frames—I. Response criteria input motion
Engineering Structures, Volume 18, Issue 9, September 1996, Pages 696-706
B. M. Broderick, A. S. Elnashai
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Is there a chance that someone provide me (and for all of us of course) those few articles:
1)
Statistical Modeling of Coupled Shear-Moment Resistance for RC Bridge Girders
J. Bridge Engrg. Volume 13, Issue 4, pp. 351-361 (July/August 2008)
by: O. Tugrul Turan, Christopher Higgins and David V. Rosowsky
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[solved - can be found in the forum]
2)
Seismic response of composite frames—I. Response criteria input motion
Engineering Structures, Volume 18, Issue 9, September 1996, Pages 696-706
B. M. Broderick, A. S. Elnashai
Code:
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[solved - can be found in the forum]
3)
The flexural rigidity of reinforced concrete slabs
Computers & Structures, Volume 20, Issue 6, 1985, Pages 929-938
Stuart G. Reid
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[solved - can be found in the forum]
4)
Probabilistic seismic analysis of a steel frame structure
Probabilistic Engineering Mechanics, Volume 8, Issue 2, 1993, Pages 127-136
Hitoshi Seya, Margaret E. Talbott, Howard H. M. Hwang
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Standard 90.1 provides minimum requirements for the energy-efficient design of buildings and building systems. It applies to all buildings except low-rise residential buildings (low- rise means three habitable floors or less). The Standard is written in building code language and is intended for adoption by national, state/province, and local code jurisdictions. The Standard specifies reasonable design practices and technologies that minimize energy consumption without sacrificing either the comfort or productivity of the occupants. The Standard is broad in scope and the requirements are appropriate for a wide range of building types, climate zones, and for a variety of site conditions. When designing a specific building on a specific site for a specific climate, design issues will undoubtedly have to be addressed that go beyond those considered in developing the Standard.
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