Preliminaries | |
Motivation | p. 1 |
The aim of the work | p. 2 |
Acknowledgements | p. 3 |
Review-The Change From One to Two Dimensions | |
Introduction | p. 5 |
Vectors-algebra | p. 5 |
Vectors-calculus | p. 9 |
Matrices | p. 11 |
Statics-equilibrium | p. 13 |
Summation convention and index notation | p. 15 |
Beam bending | p. 15 |
Conclusions | p. 23 |
Statics and Kinematics of Plate Bending | |
Introduction | p. 24 |
The stress resultants | p. 24 |
Principal values | p. 28 |
The moment circle | p. 31 |
Equilibrium equations-rectangular coordinates | p. 33 |
Plate bending kinematics-rectangular coordinates | p. 36 |
Equilibrium equations-polar coordinates-radial symmetry | p. 40 |
Plate bending kinematics-polar coordinates-radial symmetry | p. 42 |
Conclusions | p. 45 |
Elastic Plates | |
Introduction | p. 46 |
Elastic theory of plate bending-moment/curvature relations | p. 46 |
Elastic theory of plate bending-the governing equation | p. 50 |
Circular plates-radial symmetry | p. 51 |
Some simple solutions for circular plates | p. 53 |
Simple solutions for problems in rectangular coordinates | p. 58 |
Further separation of variable features-rectangular plates | p. 61 |
Solution by finite differences | p. 64 |
Some other aspects of plate theory | p. 74 |
Stability of plates | p. 79 |
Further exercises | p. 83 |
Conclusions | p. 84 |
Plastic Plates | |
Introduction | p. 85 |
Solid metal plates | p. 85 |
Yield criteria | p. 85 |
The bound theorems | p. 88 |
The normality rule | p. 91 |
Circular plates-square yield locus | p. 91 |
Circular plates-Tresca yield locus | p. 97 |
Plates of other shapes-square and regular shapes | p. 102 |
Reinforced concrete slabs-upper bounds | p. 105 |
Yield line theory-I. Fundamentals-mainly isotropic | p. 105 |
Yield line theory-II. Further isotropic examples | p. 115 |
Yield line theory-III. Orthotropic problems | p. 118 |
Strip method-Hillerborg's proposals | p. 123 |
Plates and slabs-the comparison method and lower bounds | p. 124 |
The comparison method-general principles | p. 124 |
The comparison method-lower bounds on the collapse load | p. 129 |
Finding the r[subscript min]-a geometrical problem | p. 131 |
Affinity Theorem-orthotropic plates-associated isotropic equivalents | p. 136 |
Other edge conditions | p. 138 |
Conclusions | p. 139 |
Optimal Plates | |
Introduction | p. 140 |
Problem formulation | p. 140 |
Constant curvature surfaces and principal directions | p. 142 |
Basic results-corners | p. 144 |
Some complete results | p. 151 |
Moment volumes | p. 153 |
Some theory | p. 155 |
Conclusions | p. 159 |
Exercises | p. 160 |
Construction and Design-A Case for New Technology | |
Introduction | p. 161 |
A case for new technology in construction | p. 164 |
Some "ideals" to be aimed for in construction | p. 167 |
Externally reinforced concrete-the preferred system of reinforcement and construction | p. 172 |
Section design for externally reinforced concrete members | p. 179 |
Conclusions | p. 186 |
Exercises | p. 187 |
Bibliography and Concluding Exercises | |
Bibliography | p. 188 |
Notes on the development of structural mechanics | p. 192 |
Further Exercises | p. 202 |
Concluding remarks | p. 208 |
Geometry of Surfaces | |
The need for geometry | p. 209 |
Geometry of a plane curve-curvature | p. 209 |
Length measurement on a surface-first fundamental form | p. 212 |
The normal to a surface | p. 215 |
Normal curvature-second fundamental form | p. 217 |
The derivatives of n-the Weingarten equations | p. 219 |
Directions on a surface | p. 220 |
The principal curvatures | p. 221 |
Principal directions | p. 222 |
Curvature and twist along the coordinate lines | p. 224 |
The curvature matrix | p. 228 |
The curvature circle | p. 230 |
Continuity requirements | p. 236 |
Special surfaces | p. 239 |
Summary-the geometrical quantities required for the construction of a plate theory | p. 243 |
Index | p. 245 |
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