Untitled

More documents

Recommendations

Info

238 Romuald Tarczewski Inflated bridge – type 3, bundled for transportation Fig. 25. Deployment of inflated bridge – type 3 (“scorpion’s abdomen”position) Fig. 26. Inflated bridge – type 3, ready to use Described above, structural system for deployable bridges, exploits all advantages of air-inflated modular structures together with self-erection as a principle of shaping and erecting. This is a convenient solution for constructing bridges over precipices and rivers, in military and emergency applications.
Page 2:
TEXTILE COMPOSITES AND INFLATABLE S
Page 6:
Textile Composites and Inflatable S
Page 10:
Table of Contents Preface .........
Page 14:
PREFACE The objective of this book
Page 18:
2 Rosemarie Wagner can be evaluated
Page 22:
4 Rosemarie Wagner The tension forc
Page 26:
6 Rosemarie Wagner The tension stre
Page 30:
8 Rosemarie Wagner Fig. 10. Model d
Page 34:
10 Rosemarie Wagner Fig. 12. Influe
Page 38:
12 Rosemarie Wagner Length Lx x = L
Page 42:
14 Rosemarie Wagner net with triang
Page 46:
16 Rosemarie Wagner 7. Bletzinger K
Page 50:
18 Erik Moncrieff Structural Engine
Page 54:
20 Erik Moncrieff are, by definitio
Page 58:
22 Erik Moncrieff 3 Modelling Texti
Page 62:
24 Erik Moncrieff which seek to mod
Page 66:
26 Erik Moncrieff high level optimi
Page 70:
28 Erik Moncrieff Developments in c
Page 74:
30 Lothar Grundig, ¨ Dieter Str¨
Page 78:
Page 82:
Page 86:
Page 90:
Page 94:
Page 98:
Page 102:
Page 106:
Finite Element Analysis of Membrane
Page 110:
Page 114:
Page 118:
Page 122:
x 1 Finite Element Analysis of Memb
Page 126:
and Finite Element Analysis of Memb
Page 130:
Page 134:
6 Numerical Examples Finite Element
Page 138:
Page 142:
6.4 Inflation of a Balloon Finite E
Page 146:
7Closure Finite Element Analysis of
Page 150:
Applications of a Rotation-Free Tri
Page 154:
2 3 Applications of a Rotation-Free
Page 158:
Page 162:
Page 166:
in Applications of a Rotation-Free
Page 170:
(a) DIAPHRAGM α =40 300 SYMMETRY Z
Page 174:
Page 178:
Page 182:
Page 186:
Page 190:
FE Analysis of Membrane Systems Inc
Page 194:
Page 198:
Page 202:
Page 206:
Page 210:
Page 214:
Page 218:
Page 222:
Page 226:
Page 230:
Wrinkles in Square Membranes Y.W. W
Page 234:
Wrinkles in Square Membranes 111 ra
Page 238:
1 R T 2=T 1 T 1 =T 2 L T1 =T2 L (a)
Page 242:
R wrin -r 1 R r 1 w θ r Wrinkles i
Page 246:
Wrinkles in Square Membranes 117 fo
Page 250:
C (b) B Wrinkles in Square Membrane
Page 254:
Wrinkles in Square Membranes 121 by
Page 258:
F.E.M. for Prestressed Saint Venant
Page 262:
Page 266:
with: F.E.M. for Prestressed Saint
Page 270:
Page 274:
Page 278:
Page 282:
Page 286:
OY axis (in) F.E.M. for Prestressed
Page 290:
Page 294:
Page 298:
Equilibrium Consistent Anisotropic
Page 302:
Page 306:
Page 310:
5 Equilibrium Consistent Anisotropi
Page 314:
Page 318:
154 T. Rumpel, K. Schweizerhof and
Page 322:
Page 326:
Page 330:
Page 334:
Page 338:
Page 342:
Page 346:
Page 350:
Page 354:
Page 358:
174 M. Majowiecki - the necessity t
Page 362:
176 M. Majowiecki 1.1 Some Wide Spa
Page 366:
178 M. Majowiecki Fig. 4. Sliding a
Page 370:
180 M. Majowiecki 10 0 10 -1 10 -2
Page 374:
182 M. Majowiecki 40 30 20 10 0 -10
Page 378:
184 M. Majowiecki where For a finit
Page 382:
186 M. Majowiecki Fig. 19. Aeroelas
Page 386:
188 M. Majowiecki µ =Vector of mea
Page 390:
190 M. Majowiecki ∆ε of all cabl
Page 394:
192 M. Majowiecki Fig. 25. Stabiliz
Page 398:
194 M. Majowiecki Acceleration m/se
Page 402:
196 Bernard Maurin and René ´ Mot
Page 406:
Page 410:
Page 414:
Page 418:
Page 422:
Page 426:
Page 430:
Page 434: 212 Bernard Maurin and René ´ Mot
Page 438: 214 Bernd Kroplin ¨ Fig. 1.Olympic
Page 442: 216 Bernd Kroplin ¨ Fig. 5. Inflat
Page 446: 218 Bernd Kroplin ¨ manner as the
Page 450: 220 Bernd Kroplin ¨ The Flying Roo
Page 454: 222 Romuald Tarczewski However in a
Page 458: 224 Romuald Tarczewski Post-tension
Page 462: 226 Romuald Tarczewski Fig. 5. Sche
Page 466: 228 Romuald Tarczewski scarped). Fi
Page 470: 230 Romuald Tarczewski Fig. 12. Int
Page 474: 232 Romuald Tarczewski 5.3 Air Supp
Page 478: 234 Romuald Tarczewski Fig. 18. Cyl
Page 482: 236 Romuald Tarczewski Self-erectin
Page 488: 7Conclusive Remarks Post-Tensioned
Page 492: 242 Javier Marcipar, Eugenio Oñate
Page 524: Recent Advances in the Rigidization
Page 536:
Recent Advances in the Rigidization
Page 540:
Page 544:
Page 548:
Technology Evaluation Recent Advanc
Page 552:
Page 556:
Absorbance 0,5 0,4 0,3 0,2 0,1 Rece
Page 560:
Page 564:
Page 568:
Page 572:
Page 576:
286 Edgar Stach Key words: Form-opt
Page 580:
288 Edgar Stach 3 2-D Bubble Cluste
Page 584:
290 Edgar Stach Fig. 15. Closest pa
Page 588:
292 Edgar Stach Fig. 17. Various ge
Page 592:
294 Edgar Stach Fig. 20. SKO method
Page 596:
296 Edgar Stach Fig. 26. Fig. 27. D
Page 600:
298 Edgar Stach Fullerene 5 The sma
Page 604:
300 Edgar Stach To take Fuller’s
Page 608:
302 Edgar Stach Figs. 47-49. The me
Page 612:
Making Blobs with a Textile Mould A
Page 616:
Making Blobs with aTextile Mould 30
Page 620:
Page 624:
Fig. 11. Bending for power, a pole
Page 628:
Page 632:
Page 636:
Fig. 30. To create a declining faca
Page 640:
Page 644:
7Conclusion Making Blobs with aText
show all

Untitled

Create successful ePaper yourself

Delete template?

Save as template?