| Cover |
1 |
| Fracture toughness and failure mechanism of polymer-introduced porous Hap composites -
H. Suemasu, T. Wada, M. Aizawa, K. Gozu, A. Nozue, K. Itatani |
3 |
| Fracture toughness and fracture processes in ductile metallic foams -
C. Motz, R. Pippan |
9 |
| FRACTURE TOUGHNESS AND FRACTURE PROCESSES IN DUCTILE METALLIC FOAMS |
9 |
| ABSTRACT |
9 |
| INTRODUCTION |
9 |
| RESULTS AND DISCUSSION |
10 |
| Standard fracture mechanic tests |
10 |
| In-situ fracture tests |
13 |
| CONCLUSION |
14 |
| ACKNOWLEDGEMENT |
14 |
| REFERENCES |
14 |
| Fracture toughness characterization of hydrogen embrittled Cr-Mo steel -
Y. Wada, Y. Tanaka |
15 |
| Fracture Toughness Envelope of a Limestone Rock at High Confining Pressure and Temperature -
N. A. Al-shayea, K. Khan |
22 |
| Facture Toughness |
23 |
| Failure Theories |
24 |
| TABLE 2 |
26 |
| regression parameters for various conditions |
26 |
| Condition |
26 |
| |
27 |
| For the investigated limestone rock, the effect of confining pressure on KIC and KIIC is much more significant than the effect of temperature. KIC increased by 274% under (3 = 28 MPa, but the corresponding value at T = 116(C was 24%. KIIC increased b |
27 |
| Fracture toughness measurement of small cracks in high strength steel wire -
B. Bromage, T. J. Marrow |
28 |
| Fracture toughness of niobium/sapphire interfaces: effect of interface doping and ion assisted deposition -
G. S. Was, H. Ji |
34 |
| ICF100907OR |
34 |
| FRACTURE TOUGHNESS OF NIOBIUM/SAPPHIRE INTERFACES: EFFECT OF INTERFACE DOPING AND ION ASSISTED DEPOSITION |
34 |
| ABSTRACT |
34 |
| KEYWORDS |
34 |
| INTRODUCTION |
34 |
| RESULTS AND DISCUSSION |
34 |
| |
36 |
| Microwedge scratch test |
36 |
| Analysis of buckles and curls in patterned lines |
36 |
| Interface fracture toughness from buckled lines |
37 |
| Interface fracture toughness from curled lines |
37 |
| Effect of IBAD on Interface Fracture Toughness |
38 |
| Fracture toughness of polymer interfaces: From the molecular to the continuum scale -
C. Creton, E. J. Kramer, H. R. Brown, C. Y. Hui |
40 |
| Fracture toughness tests for micro-sized specimens -
K. Takashima, Y. Ichikawa, Y. Higo, M. V. Swa |
46 |
| Free edge and interaction effects on the strength of finite-sized interface bonds -
H. M. Jensen |
52 |
| Henrik Myhre Jensen |
52 |
| |
52 |
| KEYWORDS |
52 |
| INTRODUCTION |
52 |
| FRACTURE MECHANICS |
53 |
| NUMERICAL RESULTS FOR BOND STRENGTH |
54 |
| CONCLUSION |
56 |
| |
57 |
| REFERENCES |
57 |
| Functionally graded materials: effect of elastic heterogeneity on the toughness -
V. Cannillo, W. C. Carter |
58 |
| Grain boundary resistance to cleavage fracture in Fe-3% si alloy and FE polycrystals: experiments and modeling -
A. S. Argon, Y. Qiao |
64 |
| Grain size effect on fatigue crack initiation condition observed by using atomic-force microscopy -
Y. Nakai, K. Maeda |
65 |
| Growth of cracks in steel under repeated thermal shock in a chemically controlled environment -
J. W. H. Price, B. B. Kerezsi, R. Ibrahim |
71 |
| ORAL/POSTER REFERENCE: ICF100770OR |
71 |
| GROWTH OF CRACKS IN STEEL UNDER REPEATED THERMAL SHOCK IN A CHEMICALLY |
71 |
| CONTROLLED ENVIRONMENT |
71 |
| B. Kerezsi, J.W.H. Price and R. Ibrahim |
71 |
| |
71 |
| |
71 |
| |
71 |
| |
71 |
| ABSTRACT |
71 |
| KEYWORDS |
71 |
| |
71 |
| |
71 |
| |
71 |
| |
71 |
| Crack growth, environmental effects, fatigue, pressure equipment, primary load, thermal shock. |
71 |
| INTRODUCTION |
71 |
| EXPERIMENTAL TECHNIQUE |
72 |
| TEST RESULTS |
73 |
| |
75 |
| |
75 |
| |
75 |
| |
75 |
| Crack Growth |
75 |
| ACKNOWLEDGMENTS |
75 |
| REFERENCES |
76 |
| Growth of fatigue cracks from cold expanded holes -
M. J. Pavier, A.A. Garcia-Granada, V. D. Lacarac, D. J. Smith |
77 |
| ABSTRACT |
77 |
| KEYWORDS |
77 |
| INTRODUCTION |
77 |
| RESIDUAL STRESS MEASUREMENTS AND PREDICTIONS |
78 |
| Test Specimens |
78 |
| Garcia-Sachs Method |
78 |
| Material Properties |
78 |
| Finite Element Predictions |
78 |
| Results |
78 |
| FATIGUE CRACK GROWTH MEASUREMENTS AND PREDICTIONS |
80 |
| Test Specimens |
80 |
| Fatigue Loading |
80 |
| Fatigue Properties |
80 |
| Finite Element Predictions |
80 |
| Results |
80 |
| CONCLUSIONS |
82 |
| ACKNOWLEDGEMENTS |
82 |
| |
82 |
| The work described here was sponsored by DTi and managed by DERA. Their financial support and assistance is gratefully acknowledged. |
82 |
| REFERENCES |
82 |
| High resolution analytical characterization of stress corrosion crack tips -
S. M. Bruemmer, L. E. Thomas |
83 |
| ICF100890OR |
83 |
| ABSTRACT |
83 |
| KEYWORDS |
83 |
| INTRODUCTION |
83 |
| CRACK-TIP SAMPLE PREPARATION AND CHARACTERIZATION APPROACH |
84 |
| EXAMPLES OF CRACK-TIP CHARACTERIZATIONS |
84 |
| Crack-Tip Characterization in 316SS |
85 |
| Intergranular Attack and SCC in Alloy 600 |
86 |
| DISCUSSION |
87 |
| CONCLUSIONS |
88 |
| ACKNOWLEDGEMENTS |
88 |
| REFERENCES |
88 |
| High speed debonding and frictional sliding in composite systems: experimental observations and numerical simulation -
J. Lambros, X. Bi, P. H. Geubelle |
89 |
| High strain rate behaviour of high strength steels for automotive applications -
O. Moriau, P. Verleysen, J. Degrieck, N. Akdut |
95 |
| High strain rate deformation behavior of Al-Mg alloys -
T. Masuda, T. Kobayashi, H. Toda |
101 |
| High temperature creep damage of fabricated structures -
F. W. Brust |
107 |
| Frederick W. Brust |
107 |
| ANALYSIS |
108 |
| TABLE 1. |
109 |
| MATERIAL PROPERTIES OF THE METALLIC MATERIALS USED. |
109 |
| Copper |
109 |
| CONCLUSIONS |
111 |
| ACKNOWLEDGMENT |
111 |
| REFERENCES |
112 |
| Hydrogen effects on the localization of plastic deformation at a crack tip: implications for fracture -
P. Sofronis, Y. Liang |
113 |
| HYDROGEN CONCENTRATION AND CONSTITUTIVE LAW |
114 |
| NUMERICAL RESULTS |
115 |
| |
116 |
| |
116 |
| (a) |
116 |
| (b) |
116 |
| CONCLUDING DISCUSSION |
118 |
| ACKNOWLEDGEMENTS |
118 |
| Hydrogen induced crack growth rate in steel plates under uniaxial stress -
J. L. Gonzalez, R. Ramirez, J. M. Hallen |
119 |
| Hydrogen/length scale interactions during small volume yielding and fracture -
W. Gerberich, N. I. Tymiak |
126 |
| Hydrogen, Hydrides, and Crack Tip Deformation in Titanium -
C. L. Briant, Z. F. Wang, K. S. Kumar |
134 |
| Hydrogen, Hydrides, and Crack Tip Deformation in Titanium |
134 |
| ABSTRACT |
134 |
| KEYWORDS |
134 |
| INTRODUCTION |
134 |
| EXPERIMENTAL |
135 |
| RESULTS |
135 |
| DISCUSSION |
138 |
| CONCLUSIONS |
139 |
| ACKNOWLEDGMENTS |
139 |
| REFERENCES |
139 |
| Image analysis of hydrogen-assisted micro-damage in progressively drawn pearlitic steel -
J. Toribio, F. J. Ayaso, E. Ovejero |
148 |
| Impact strength of cracked structural member -
I. Maekawa, K. Uda |
155 |
| Impact welding of aluminium tube to a stainless steel target - effect of deformation of tube on bonding condition -
H. Date |
161 |
| IMPACT WELDING OF ALUMINUM TUBE TO A STAINLESS STEEL TARGET |
161 |
| – EFFECT OF DEFORMATION OF TUBE ON BONDING CONDIT |
161 |
| Importance of crack tunneling during fracture: experiments and CTOA analyses -
M. A. James, J. C. Newman |
168 |
| Improvement of mechanical properties of alumina particulate composites using polycrystalline alumina powder -
K. Kageyama, K. Ohi, H. Kato |
174 |
| Improving the adhesion strength of PET/PMMA composite by radio frequency plasma treatment -
M. O. H. Cioffi, H. J. C. Vorwald |
180 |
| aCioffi, M. O. C., aVoorwald, H. J. C. and bMota, R. P |
180 |
| Av. Ariberto Pereira da Cunha, 333 Cep 12516-410 |
180 |
| * Corresponding author. Tel: +55-12-5252800 (r. 306); e-mail: cioffi@feg.unesp.br. |
180 |
| Materials |
181 |
| Treatment |
182 |
| |
182 |
| |
182 |
| |
182 |
| |
182 |
| Sdt (MPa) |
182 |
| Scanning Electron Microscopy |
183 |
| Acknowlegdements |
185 |
| REFERENCES |
185 |
| In search of a parameter for fretting fatigue -
T. Nicholas, A. Hutson, S. Olson, N. Ashbaugh |
186 |
| IN SEARCH OF A PARAMETER FOR FRETTING FATIGUE |
186 |
| ABSTRACT |
186 |
| KEYWORDS |
186 |
| INTRODUCTION |
186 |
| EXPERIMENTS |
187 |
| ANALYSIS |
187 |
| RESULTS & DISCUSSION |
188 |
| COMMENTS & CONCLUSIONS |
191 |
| REFERENCES |
191 |
| In vitro bioactive functional and fracture strength of biomaterial in a simulated body fluid -
N. Hisamori, A. Nozue, M. Aizawa, H. Suemasu |
192 |
| In-situ characterization of matrix response to fiber fractures -
J.C. Hanan, I.J. Beyerlein, E. Ustundag, G.A. Swift, B. Clausen, D.W. Brown |
198 |
| IN-SITU CHARACTERIZATION OF MATRIX RESPONSE TO FIBER FRACTURES |
198 |
| |
198 |
| |
198 |
| Metal-matrix composite, neutron diffraction, constitutive behavior, fiber fracture, matrix yielding, Al-Al2O3 composite, interface shear strength. |
198 |
| INTRODUCTION |
198 |
| RESULTS AND DISCUSSION |
200 |
| CONCLUSIONS |
202 |
| ACKNOWLEDGEMENTS |
203 |
| REFERENCES |
203 |
| In-situ ultrasonic characterization of fatigue crack initiation and evolution from surface damage -
S.I. Rokhlin, J.-Y. Kim |
204 |
| ABSTRACT |
204 |
| INTRODUCTION |
204 |
| IN-SITU ULTRASONIC MEASUREMENTS |
205 |
| INTERPRETATION OF ULTRASONIC RESULTS |
206 |
| MEASUREMENT OF CRACK CLOSURE LOADS |
207 |
| MODEL FOR CRACK DEPTH DETERMINATION |
208 |
| CONCLUSION |
209 |
| |
209 |
| References |
209 |
| Indentation-induced damage of thin-films supported on substrates -
A. H. W. Ngan |
210 |
| ABSTRACT |
210 |
| |
210 |
| INTRODUCTION |
210 |
| In a general case of modelling indentation on a film supported by a substrate, it is useful to think of a spectrum of possibilities as shown in Figure 2. One extreme is the rigid film mode (Figure 2(a)) in which the film is much harder than the subst |
211 |
| When the film has similar strength as the substrate, the material flow pattern should not differ significantly from that in the indentation on a homogeneous half space. The latter has been modelled rather successfully using the cavity model [6]. For a co |
212 |
| Since the measured hardness H ( po, substituting eqn. (4) into eqn. (2) gives |
213 |
| Inducing 'pure' mode II shear failures in laminated composites -
S. R. Short, C. P. Sastry |
216 |
| Inelastic cyclic stress-strain response in silicon-nitride ceramics at elevated temperatures -
K. Hatanaka, K. Oshita, Y. Ishiga, H. Toyama |
222 |
| Influence coefficients to calculate stress intensity factors for an elliptical crack in a plate -
P. Le Delliou, B. Barthelet |
232 |
| Influence of annealing process on ultrafast carrier dynamics for an ion-implanted silicon surface -
H. Donen, Y. Inagaki, K. Katayama, M. Fujinami, T. Sawada |
238 |
| ORAL/POSTER REFERENCES: ICF100931OR |
238 |
| ABSTRACT |
238 |
| KEYWORDS |
238 |
| INTRODUCTION |
238 |
| Influence of hydrostatic pressure on multiaxial fatigue of notched components -
G. Quilafku, G. Pluvinage |
244 |
| |
246 |
| Influence of loading changes on the fatigue crack growth -
M. Sander, H. A. Richard |
251 |
| M. Sander and H. A. Richard |
251 |
| ABSTRACT |
251 |
| INTRODUCTION |
251 |
| LOADING CHANGES DURING SERVICE LOADING |
252 |
| EXPERIMENTAL SETUP |
252 |
| RESULTS OF EXPERIMENTAL INVESTIGATIONS OF LOADING CHANGES |
253 |
| CONCLUSIONS |
256 |
| REFERENCES |
256 |
| Influence of loading rate on shear fracture toughness for failure mode transition -
J. F. Kalthoff, A. Burgel |
257 |
| INFLUENCE OF LOADING RATE |
257 |
| ON SHEAR FRACTURE TOUGHNESS |
257 |
| FOR FAILURE MODE TRANSITION |
257 |
| J.F. Kalthoff , A. Bürgel |
257 |
| Experimental Mechanics |
257 |
| Ruhr-University Bochum, Germany |
257 |
| |
257 |
| |
257 |
| |
257 |
| |
257 |
| |
257 |
| KEYWORDS |
257 |
| INTRODUCTION |
257 |
| EXPERIMENTAL TECHNIQUES |
257 |
| SHEAR FRACTURE TOUGHNESSES |
258 |
| Figure 5: Failure in aluminum alloy Al 7075 by adiabatic shear bands |
260 |
| SUMMARY AND DISCUSSION |
261 |
| ACKNOWLEDGEMENT |
262 |
| REFERENCES |
262 |
| Influence of phase transformation on subcritical crack growth in numerical modelling of a ceramic composite -
T. Niezgoda, W. Szymczyk, J. Zurek |
263 |
| ABSTRACT |
263 |
| CONCLUSIONS |
268 |
| REFERENCES |
268 |
| Influence of residual stress on ductile crack initiation and growth in dissimilar metal weld joints -
A. Sherry, D. Lidbury, D. Beardsmore |
269 |
| ABSTRACT |
269 |
| KEY WORDS |
269 |
| INTRODUCTION |
269 |
| BIMET01 AND 02 TESTS |
270 |
| R6 ANALYSES |
270 |
| Evaluation of KPeff and KSeff |
270 |
| Evaluation of ? |
271 |
| Evaluation of Kmat |
271 |
| Evaluation of limit moment |
271 |
| Weld mismatch |
271 |
| Failure assessment curves |
272 |
| RESULTS |
272 |
| Assessment of crack initiation |
272 |
| Assessment of tearing instability |
272 |
| DISCUSSION |
272 |
| CONCLUSIONS |
273 |
| ACKNOWLEDGEMENTS |
273 |
| REFERENCES |
273 |
| Influence of residual stress on super-long life fatigue properties of high strength steel SNCM439 -
T. Matsumura, Y. Ochi, S. Yoshida, K. Masaki |
276 |
| Influence on low cycle fatigue properties of bond coat oxidation for a thermal barrier coating -
H. Brodin, S. Johansson |
277 |
| Inhomogeneity effects on crack growth -
N. K. Simha, F. D. Fischer, O. Kolednik |
284 |
| Initial cracks in saturated swelling soils -
V. Y. Chertkov |
290 |
| V.Y. Chertkov |
290 |
| Faculty of Agricultural Engineering, Technion – I |
290 |
| Haifa 32000, Israel |
290 |
| KEYWORDS |
290 |
| TWO POSSIBLE TYPES OF SHRINKAGE CRACKS IN A SWELLING SOIL |
293 |
| Interface crack in a periodically layered bimaterial composite -
M. Ryvkin, L. Kucherov |
295 |
| Interfacial adhesion and crack initiation at metal/ceramic interface -
S. X. Mao, M. Z. Li |
301 |
| Scott X. Mao and M. Li |
301 |
| University of Pittsburgh, Pittsburgh, PA 15261, USA |
301 |
| Interfacial force microscopy studies of y-APS on glass and SI02 -
K. M. Liechti, K. C. Vajapeyajula, M. Wang, H. Cabibil, H. Celio, J. M. White |
307 |
| Internal damage to wire ropes on crane: Case studies of fracture accidents and countermeasures for prevention -
M. Tanaka |
312 |
| Introduction of the hamiltonain system into the asymptotic analysis in fracture mechanics -
J. Li |
318 |
| ABSTRACT |
318 |
| KEY WORDS |
318 |
| INTRODUCTION |
318 |
| 4: THEOREM OF EXPANSION |
321 |
| 5: SOLUTION METHODS |
322 |
| 6: MULTI-MATERIAL PROBLEMS |
322 |
| Investigation of fracture criterion for composite using CTS specimen -
R. Rikards, A. K. Bledzki, F.-G. Buchholz |
324 |
| R. Rikards1, A. K. Bledzki2 and F.-G. Buchholz3 |
324 |
| |
324 |
| INTRODUCTION |
324 |
| EXPERIMENTAL |
325 |
| Material |
325 |
| FINITE ELEMENT ANALYSIS |
326 |
| The finite element model of the specimen consists of quadrilateral plane strain elements with 4 nodal points. The plain strain conditions was used in the finite element analysis. The loads on the specimen were applied according to Figure 2 and were calcu |
326 |
| RESULTS OF EXPERIMENT |
327 |
| |
328 |
| |
328 |
| The mixed mode fracture criterion can be written in a general form [14] |
328 |
| CONCLUSIONS |
329 |
| |
329 |
| REFERENCES |
329 |
| Investigation on oblique impact response of composite cylindrical shells -
W. Z. Nie, W. K. Binienda |
330 |
| Issues in fracture toughness and r-curve behavior of particle reinforced metal matrix composites -
B. S. Majumdar |
336 |
| ABSTRACT |
336 |
| KEYWORDS |
336 |
| INTRODUCTION |
336 |
| EXPERIMENTS |
337 |
| RESULTS |
337 |
| MODELING OF FRACTURE TOUGHNESS AND STEADY STATE TOUGHNESS |
338 |
| STABILITY ANALYSIS |
339 |
| K-R curves of thin 2195-T8 aluminium alloy plate -
R. Doglione, D. Firrao |
342 |
| Kic - a non measure of plane strain fracture toughness -
K. Wallin |
347 |
| Length scales for the fracture of nanostructures -
W. Gerberich |
353 |
| Loading rate dependence of mode I fracture behavior of rubber toughened PMMA -
M. Todo, K. Takahasi |
366 |
| Local fracture properties in MMC's -
O. Kolednik, I. Sabirov |
372 |
| Long term prediction of fatigue life for FRP joint systems -
Y. Miyano, M. Nakada, N. Sekine, S. W. Tsai |
378 |
| INTRODUCTION |
378 |
| EXPERIMENTAL PROCEDURE |
379 |
| Preparation of GFRP joints |
379 |
| Test procedure |
379 |
| RESULTS AND DISCUSSION |
380 |
| Master curve of CER failure load |
380 |
| Master curve of fatigue failure load |
381 |
| Comparison of the master curves of fatigue failure load |
382 |
| CONCLUSION |
382 |
| REFERENCES |
383 |
| Modeling of grain pullout in fatigued polycrystalline alumina - M. T. Kokaly, A. S. Kobayashi, K. W. White |
384 |
| ABSTRACT |
384 |
| KEYWORDS |
384 |
| INTRODUCTION |
384 |
| EXPERIMENTAL BACKGROUND |
384 |
| WL-DCB Specimen |
385 |
| Side-surface Micrograph |
385 |
| FPZ MICROMECHANICS |
385 |
| Material Properties |
387 |
| LRM constitutive model for describing functionally graded material with fast propagating crack -
M. Nakagaki, Y. Wu |
390 |
| Major aspects of mixed-mode problems -
H. A. Richard |
396 |
| Material response with cell method -
F. Cosmi |
402 |
| MATERIAL RESPONSE |
402 |
| WITH THE CELL METHOD |
402 |
| ABSTRACT |
402 |
| KEYWORDS |
402 |
| INTRODUCTION |
402 |
| THE CELL METHOD FOR PLANE ELASTICITY |
403 |
| SIMULATIONS AND DISCUSSIONS |
405 |
| PLASTICITY |
406 |
| CONCLUSIONS |
407 |
| REFERENCES |
407 |
| Materials with cracks and pores: micromechanics, cross-property correlations and applications -
M. Kachanov, I. Sevostianov |
408 |
| ABSTRACT |
408 |
| References |
413 |
| Mathematical model of a crack on an imperfect interface -
Y. A. Antipov, A. B. Movchan |
414 |
| Measuring crack tip deformation with nanoscopic resolution -
Y. M. Xing, W. Yang |
420 |
| KEYWORDS |
420 |
| INTRODUCTION |
420 |
| Mechanical and fracture properties of methacrylic particle-modified PVC -
Y. Nakamura, E. Takekuni, Y. Kinugawa, T. Iida |
426 |
| EXPERIMENTAL |
427 |
| Sample Preparation |
428 |
| RESULTS AND DISCUSSIONS |
428 |
| Mechanical behavior and electrical resistance change in carbon particle dispersed plastic composite -
D.-Y. Song, Y. Hirata, N. Takeda |
432 |
| Mechanical properties of ionomer/clay nonocomposite-modified epoxy -
S. Matsuda, H. Akimoto, A. Murakami |
438 |
| Mechanical properties of tungsten fiber reinforced Ti-6A1-4V alloy by HIP fabrication -
S. Y. Son, S. Nishida, N. Hattori, K. Hayashi, K. Nakano |
442 |
| Mechanical properties, adhesion and fracture toughness of low-k dielectric thin films for microelectronic applications -
I. Adhihetty, J. Vella, A. Volinsky, C. Goldberh, W. Gerberich |
448 |
| ORAL REFERENCE: ICF1001077 |
448 |
| Mechanics-based modeling of dynamic fragmentation and comparison with experiments -
W. J. Drugan |
454 |
| Mechanisms of fracture in pearlitic steels with different degrees of cold drawing -
J. Toribio, F. J. Ayaso, M. Toledano |
460 |
| Mechnical behaviour and electrical resistance change in carbon particle dispersed plastic composite -
D.-Y. Song, Y. Hirata, N. Takeda |
468 |
| Meso-fracture of metal matrix composites reinforced by particles of large volume fraction -
W. Yang, C. Zhou, D. Fang |
474 |
| Department of Engineering Mechanics, Tsinghua University |
474 |
| Mesodamage of 2024-T3 aluminum alloy specimen due to corrosion-induced localized hydrogen embrittlement -
A. T. Kermanidis, P. Papanikos, S. G. Pantelakis |
475 |
| ABSTRACT |
475 |
| KEYWORDS |
475 |
| INTRODUCTION |
475 |
| |
476 |
| |
476 |
| |
476 |
| |
476 |
| |
476 |
| MESODAMAGE APPROACH |
476 |
| EXPERIMENTS |
477 |
| Materials and Specimen Preparation |
477 |
| Mechanical Testing |
477 |
| RESULTS AND DISCUSSION |
477 |
| Mechanical Characterization |
477 |
| |
477 |
| |
477 |
| TABLE 1 |
477 |
| Fracture Toughness |
478 |
| |
479 |
| TABLE 2 |
479 |
| CONCLUSIONS |
480 |
| ACKNOWLEDGMENTS |
480 |
| REFERENCES |
480 |
| Method for estimating service load from striation width and height -
K. Furukawa |
481 |
| Microelectromechanical structures for multi-axial fatigue testing -
K. Komvopoulos |
487 |
| ICF100217OR |
487 |
| MICROELECTROMECHANICAL STRUCTURES FOR |
487 |
| MULTIAXIAL FATIGUE TESTING |
487 |
| |
487 |
| ABSTRACT |
487 |
| |
489 |
| |
489 |
| |
489 |
| Basic Characteristics of Fatigue Microstructures |
489 |
| Fatigue Microstructures |
489 |
| Fabrication Process |
490 |
| RESULTS AND DISCUSSION |
490 |
| |
492 |
| |
492 |
| |
492 |
| Figure 4. Change of resonant frequency of fatigue microstructures revealing fatigue damage evolution. |
492 |
| CONCLUSIONS |
492 |
| ACKNOWLEDGMENTS |
492 |
| |
492 |
| |
492 |
| |
492 |
| This research was supported by the National Science Foundation under Grant No. DMI-9872324 and the Defense Advanced Research Projects Agency/Microelectromechanical Systems (DARPA/MEMS) under Grant No. DABT63-98-1-0011. The author is grateful to P. Stup |
492 |
| REFERENCES |
492 |
| Micromechanical modeling of hydrogen-induced fracture modes in IN903 -
B. P. Somerday, N. R. Moody |
494 |
| ORAL/POSTER REFERENCE: ICF108920R |
494 |
| MICROMECHANICAL MODELING OF HYDROGEN-INDUCED FRACTURE MODES IN IN903 |
494 |
| Sandia National Laboratories, Livermore, CA 94550, USA |
494 |
| |
494 |
| ABSTRACT |
494 |
| KEYWORDS |
494 |
| INTRODUCTION |
494 |
| RESULTS AND DISCUSSION |
495 |
| TABLE 1 |
496 |
| local fracture stress for in903 as a function of grain size |
496 |
| TABLE 2 |
496 |
| local fracture strain for in903 as a function of hydrogen concentration |
496 |
| Hydrogen |
496 |
| |
497 |
| CONCLUSIONS |
497 |
| ACKNOWLEDGEMENTS |
498 |
| REFERENCES |
498 |
| DFamage and ultimate failure of textile ceramic matrix composite - J. Lamon |
500 |
| ULTIMATE FAILURE |
502 |
| Failure mechanisms |
502 |
| Features of ultimate failure |
503 |
| |
504 |
| Figure 3 : Strength density functions for SiC fibers (NLM 202), SiC fiber tows, SiC/SiC (1D) minicomposites and 2D SiC/SiC composites. |
504 |
| Figure 4 : Scale effects in 2D woven SiC/SiC composites. Influence of specimen dimensions on ultimate failure in tension : (() V1 = 8 x 30 x 3 mm3, (o) V2 = 160 x 120 x 3 mm3, solid line : prediction of failure of larger specimens (volume V2) usin |
504 |
| Micromechanics in graphite fiber/epoxy composites during creep -
C. H. Zhou, L .S. Schadler, I. J. Beyerlein |
506 |
| 4.1 Bulk Matrix Creep Tests |
508 |
| 4.2 MRS Data and Model Predictions for Multi-fiber Composite |
509 |
| Micromechanisms of fatigue in polysilicon MEMS structures -
S. Allameh, P. Shrotriya, B. Gally, S. Brown, W. O. Soboyejo |
512 |
| MICROMECHANISMS OF FATIGUE IN POLYSILICON MEMS STRUCTURES |
512 |
| |
512 |
| ABSTRACT |
512 |
| KEYWORDS |
512 |
| INTRODUCTION |
512 |
| MATERIAL |
513 |
| EXPERIMENTAL PROCEDURE |
513 |
| MODELING |
514 |
| Finite element Analysis |
514 |
| Linear Perturbation Analysis |
515 |
| SUMMARY AND CONCLUDING REMARKS |
517 |
| ACKNOWLEDGEMENTS |
517 |
| REFERENCES |
517 |
| Microstructural features of short crack growth in a Beta-titanium Alloy -
U. Krupp, W. Floer, H.-J. Christ, A. Schick, C.-P. Fritzen |
518 |
| Microstructure and mechanical properties of laser cladded steel plates -
S. Niederhauser, B. Karlsson |
524 |
| Mixed mode I/II fracture toughness of mild steel -
M. Srinivas, S. V. Kamat, P. Rama Rao |
530 |
| ORAL reference : 99 |
530 |
| MIXED MODE I/III FRACTURE TOUGHNESS OF MILD STEEL |
530 |
| M.Srinivas1, S.V.Kamat1 and P. Rama Rao2 |
530 |
| |
530 |
| |
530 |
| INTRODUCTION |
530 |
| EXPERIMENTAL PROCEDURE |
531 |
| DISCUSSION |
532 |
| Blunting Line |
532 |
| Mode-I delamination characterisation of cross-ply fibre-metal laminates -
J. Laliberte, P. V. Straznicky, C. Poon |
536 |
| MODE-I DELAMINATION CHARACTERISATION OF CROSS-PLY FIBER-METAL LAMINATES |
536 |
| ABSTRACT |
536 |
| KEYWORDS |
536 |
| INTRODUCTION |
536 |
| DELAMINATION TESTING OF FIBER-METAL LAMINATES |
537 |
| EXPERIMENTAL TESTING |
539 |
| Apparatus and DCB Specimen |
539 |
| Results |
539 |
| Discussion of Results |
540 |
| MODELLING OF DELAMINATION DAMAGE IN FMLS |
540 |
| CONCLUSIONS AND FUTURE WORK |
541 |
| ACKNOWLEDGEMENTS |
541 |
| REFERENCES |
541 |
| Model of mechanics for fiber reinforced Ti alloy matrix composites under thermomechanical loading -
L.-S. Niu, Q.-Y. Hu, H.-J. Shi, C. Robin |
542 |
| ABSTRACT |
542 |
| KEYWORDS |
542 |
| INTRODUCTION |
542 |
| STRESS ANALYSIS OF TI MMCS UNDER THERMOMECHANICAL LOADING |
546 |
| CONCLUSIONS |
547 |
| ACKNOWLEDGMENTS |
547 |
| REFERENCES |
547 |
| Modeling of crack-opening stress levels under different service loading spectra and stress levels for a 1045 annealed steel -
M. Khalil, T. H. Topper, K. Soudki |
548 |
| Modeling of residual stress effects using eigenstrain -
M. R. Hill |
554 |
| Modeling the effects of residual stresses on cleavage fracture in welded steel frames -
C. G. Matos, R. H. Dodds |
560 |
| Modelling crack propagation: a phase field approach -
L. O. Eastgate, J. P. Sethna, M. Rauscher, C. R. Myers, C. S. Chen |
566 |
| Modelling of damage evolution equation of PZT ceramics and its application to crack growth analysis -
M. Mizuno, Y. Honda, H. Kato |
570 |
| Modelling of plastic effects during small fatigue-crack growth -
O. Y. Andreykiv, V. V. Panasyuk, R. O. Ritchie, O. I. Darchuk |
576 |
| MODELLING OF PLASTIC EFFECTS DURING SMALL |
576 |
| FATIGUE-CRACK GROWTH |
576 |
| |
576 |
| O.Ye. Andreykiv1, V.V. Panasyuk1, R.O. Ritchie2 and O.I. Darchuk1 |
576 |
| KEYWORDS |
576 |
| INTRODUCTION |
576 |
| DEVELOPMENT OF THE MODEL |
577 |
| REFERENCES |
581 |
| Modelling of size effects on fracture in the brittle-to-ductile transition regime -
A. H. Sherry, D. P. Lidbury, D. C. Connors, A. R. Dowling |
582 |
| ABSTRACT |
582 |
| KEY WORDS |
582 |
| INTRODUCTION |
583 |
| MATERIAL |
584 |
| NUMERICAL ANALYSIS |
584 |
| RESULTS |
585 |
| Crack driving force |
585 |
| Crack-tip constraint |
585 |
| Predicted transition behaviour |
585 |
| DISCUSSION |
585 |
| CONCLUSIONS |
586 |
| ACKNOWLEDGEMENTS |
587 |
| REFERENCES |
587 |
| Modelling of transversly isotropic blister test specimen -
F. S. Kadioglu |
592 |
| Modelling the effects of microstructure and microtexture on the statistics of short fatigue crack growth -
A. J. Wilkinson |
598 |
| THE MODEL |
599 |
| RESULTS |
600 |
| Grain Size Distribution Effects |
600 |
| Grain Orientation Distribution Effects |
601 |
| Neighbouring Grain Orientation Effects |
602 |
| CONCLUDING REMARKS |
603 |
| ACKNOWLEDGMENTS |
603 |
| Modelling the processes of micro-defects nucleation in thin-film interconnects of integrated circuits at electromigration -
R. V. Goldstein, M. E. Sarychev, D. B. Shirabaikin, A. S. Vladimirov, Y. V. Zhitnikov |
604 |
| FORMATION IN THIN-FILM IC INTERCONNECTS |
604 |
| ABSTRACT |
604 |
| |
604 |
| KEYWORDS |
604 |
| From Eqn. 4 it follows that |
605 |
| A KINETIC MODEL FOR THE VOID NUCLEATION |
606 |
| |
607 |
| |
607 |
| Figure 1: The void characteristic size as a func |
607 |
| CONCLUSION |
608 |
| |
609 |
| REFERENCES |
609 |
| Modified electrochemical emission spectroscopy (MEES) as NDT method of detection of SCC of metallic alloys -
K. Habib |
610 |
| Molecular dynamics simulation of crack propagation in HCP crystals -
S. Ando, K. Takashima, H. Tonda |
616 |
| Monitoring part-through crack growth using the compliance technique -
N. Parida, S. Tarfder |
622 |
| Crack propagation and damage in metallic alloys - E. Bouchaud, F. Paun |
626 |
| Multi-scale fatigue of As-cast lightweight structural metals -
K. Gall, M. Horstemeyer, D. L. McDowell, J. Fan, N. Yang |
632 |
| Multipass welding simulation of tig welded AISI 316LN -
C. H. L. J. ten Horn, G. W. Medendorp, J. Zuidema, A. Bakker, P. G. de Heij, D. d'Hulst |
638 |
| Nano-indentation fracture with a corner cube indenter -
J. S. Field, R. Dukino, N. Iwashita, M. V. Swain |
644 |
| Nanoindentation and fracture analysis of thin solid films -
K. Sriram, R. Narasimhan, S. K. Biswas |
650 |
| Near the fatigue limit in glass -
S. Wiederhorn |
656 |
| ICF100830OR |
656 |
| NEAR THE FATIGUE LIMIT IN GLASS |
656 |
| NEAR THE FATIGUE LIMIT IN GLASS |
657 |
| ABSTRACT |
657 |
| INTRODUCTION |
657 |
| Near tip behaviour in a particulate composite material under constant strain rates including temperature and thickness effects -
C. T. Liu, C. W. Smith |
663 |
| Table I-Summary of Regression analysis |
666 |
| New considerations and results on crack separation energy rated in elastic-plastic fracture mechanics -
Y. Wadier, E. Lorentz |
669 |
| New type steel having superior brittle crack arrestibility and its application to improve structural integrity -
T. Ishikawa, T. Inoue, Y. Hagiwara, H. Yajima |
675 |
| Non-contact detection of delamination in impacted cross-ply CFRP using laser generated lamb waves -
Y. Mizutani, H. Nishino, M. Takemoto, K. Ono |
681 |
| ABSTRACT |
681 |
| KEYWORDS |
681 |
| INTRODUCTION |
681 |
| SPECIMENS AND EXPERIMENTAL SETUP |
682 |
| RESULTS FOR THE SMALL SPECIMEN |
682 |
| RESULTS FOR LARGE SPECIMEN |
684 |
| ACKNOWLEDGEMENT |
686 |
| Reference |
686 |
| Nonlinear dynamics of crack propagation (experimental and theoretical study) -
O. Naimark, V. A. Baranninkov, S. V. Uvarov |
687 |
| O.B. Naimark, V.V.Barannikov, S.V. Uvarov |
687 |
| |
687 |
| |
687 |
| ABSTRACT |
687 |
| Microscopic and macroscopic variables for defect ensemble |
687 |
| PHENOMENOLOGY OF QUASI - BRITTLE FAILURE |
688 |
| |
688 |
| |
688 |
| Free Energy |
688 |
| Damage Kinetics in Quasi-Brittle Failure |
689 |
| The damage kinetics in quasi-brittle materials is determined by the evolution inequality [7] that leads to the kinetic equation for the defect density parameter |
689 |
| |
689 |
| ORIGIN OF CRACK TIP INSTABILITY |
689 |
| EXPERIMENTAL STUDY OF NONLINEAR CRACK DYNAMICS |
690 |
| |
691 |
| |
691 |
| Figure 5: Correlation integral |
691 |
| These portraits display the periodic stress dynamics (Fig.4) that in the correspondence with the local ellipticity of Eq.(2) for () and the stochastic dynamics for corresponding to the second type of the attractor (Fig.4). The recording of t |
691 |
| LOW VELOCITY LIMIT. CRACK ARREST. |
692 |
| Nonlinear fracture mechanics of delamination failure in a composite strengthened concrete beam -
C. K. Y. Leung, M. Klenke, W. K. Tung, H. C. Y. Luk |
693 |
| Christopher K.Y. Leung, Marcus Klenke, W.K. Tung and Herman C.Y. Luk |
693 |
| |
693 |
| |
693 |
| |
693 |
| |
693 |
| |
693 |
| Department of Civil Engineering, The Hong Kong University of Science and Technology |
693 |
| ABSTRACT |
693 |
| |
693 |
| KEYWORDS |
693 |
| INTRODUCTION |
693 |
| In the interface element, the horizontal spring carried a shear force equal to the shear stress (?s) times the area the element represents. The vertical link carries a normal force equal to the normal stress (?n) times the area. Both the spring and l |
695 |
| Fig.1 (a) and (b) Representation of concrete damage with non-linear interface elements |
695 |
| (c) the interface element, (d) Variation of element shear stress with sliding |
695 |
| Determining the constitutive relation of interface element |
695 |
| To obtain the constitutive relation of the interface element, a novel experimental procedure is developed (Fig.2). It consists of a concrete half-beam and a metal member connected together by a rod that acts as a hinge. A composite plate is to be glued |
695 |
| Fig. 2 Experimental set-up to determine constitutive relation of the interface element |
695 |
| As shown in Fig.2, strain gauges are glued along the composite surface and longitudinal strain is measured together with the applied load. A finite element model for the concrete member is set up. Interface elements such as those shown in Fig.1 are place |
696 |
| Experimental Result and Analysis |
696 |
| The size of the metal member and concrete half-beams are around 1.1m x 0.2m x 0.22m (LxWxH). The composite employed is Sika Carbodur S-512. The total length of the composite is 950mm, half is bonded on the concrete. Starting from the internal bottom ed |
696 |
| |
697 |
| Fig.6 Comparison between Experimental and FEM results for P = 9.2 kN |
697 |
| CONCLUSION |
698 |
| For the delamination of bonded plate from a concrete member, non-linear behaviour has been reported by many investigators. In this study, a combined experimental/ computational approach was developed for the quantitative determination of shear softening |
698 |
| References |
698 |
| Notch effect of micro polycrystalline silicon cantilever -
S. Hamada, S. Tani, M. Horikawa, H. Otani, M. Tsugai, E. Yosikawa |
699 |
| Notch fracture mechanics: a review of fracture criteria used in elastic and elastroplastic cases -
G. Pluvinage |
705 |
| ICF 100728 PR |
705 |
| NOTCH FRACTURE MECHANIC |
705 |
| A REVIEW OF FRACTURE CRITERIA USED IN ELASTIC AND ELASTOPLASTIC CASES |
705 |
| KEYWORDS |
705 |
| INTRODUCTION |
705 |
| ENERGETIC FRACTURE CRITERIA FOR NOTCHED COMPONENTS |
707 |
| Influence of notch radius on critical value of energetic parameter J |
707 |
| Notch fracture of MEMS sensors made of single crystal silicon -
Z. L. Zhang, W. Westby, T. Wang |
712 |
| INTRODUCTION |
713 |
| NOTCH TIP STRESS FIELDS |
714 |
| SENSOR-TYPE SPECIMENS |
715 |
| Figure 3 a) Lateral view of the loading blade and bending specimens, b) the finite element mesh used for the analyses. |
716 |
| TEST RESULTS AND CRITICAL NOTCH STRESS FACTOR |
716 |
| Notch strength and notch sensitivity of polymethyl methacrylate -
H. Wang, J. Yan, X. Zheng |
720 |
| Tab. 1 Test results of tensile properties of smooth specimens |
723 |
| Tab. 2 Test results of notch strength in tensile experiment |
723 |
| References |
724 |
| Notch strength of spheroidal graphite cast iron under tension loading -
K. Zhao, J. Sun, J. Yan, X. Zheng |
725 |
| Numerical investigation of fatigued composites under cyclic compression spectra -
A. Pelegri, D. Kedlaya |
731 |
| Residual stress concentrations assessment in ceramics using FEM - T. Niezgoda, W. Szymczyk, J. Malachowski, M. Woropay |
737 |
| ABSTRACT |
737 |
| FEM MODELS OF POLYCRYSTALLINE ORTHOTROPIC CERAMICS |
738 |
| METHOD OF CALCULATIONS |
739 |
| STATISTICAL POSTPROCESSING OF RESULTS |
740 |
| CONCLUSIONS |
742 |
| References |
742 |
| Numerical representation of plastic J-Integral variation along the crack front of semi-elliptical surface crack under uniform tension -
M. H. Sharobeam |
743 |
| THE FINITE ELEMENT MODEL |
745 |
| Numerical simulation of concrete failure in pull-out experiments -
P. Pivonka, R. Lackner, H. A. Mang |
749 |
| Numerical simulation of crack tip fields and toughening mechanisms in ternary polymer blends -
T. Seelig, E. van der Giessen, D. Gross |
757 |
| Numerical simulation of micro and nano scale fracture -
M. Zhou |
763 |
| ICF100427OR |
763 |
| ACKNOWLEDGEMENT |
768 |
| Numerical simulation of the surface fatigue crack growth using VCE method -
T. Nishioka, Q. Hu, T. Fujimoto |
769 |
| DYNAMIC J INTEGRAL AND SEPARATED DYNAMIC J INTEGRALS |
770 |
| COMPONENT SEPARATION METHOD OF DYNAMIC J INTEGRAL |
771 |
| NUMERICAL SIMULATION RESULTS |
772 |
| CONCLUSIONS |
774 |
| References |
774 |
| Numerical study of the probability of fracture of glass under stress corrosion -
H. Auradou, D. Vandembroucq, C. Guillot, E. Bouchaud |
775 |
| Microstructure property damage analysis of notch tensile tests - M. F. Horstemeyer, K. Gall, K. W. olan, A. aters, A. M. Gokhale, M. D. Dighe |
781 |
| ICF10063OR |
781 |
| Observation of fatigue crack initiation and early propagation in ultrafine-grained steel by atomic force microscopy -
H. Kimura, Y. Akiniwa, K. Tanaka, J. Kondo, T. Ishikawa |
787 |
| Offset method for determination of lower-bound fracture toughness in the transition temperature region -
T. Iwadate, H. Takemata |
793 |
| Steels |
794 |
| El.% |
794 |
| On anisotropy effects in ductile fracture: Theory and applications -
A. A. Benzerga, J. Besson, A. Pineau |
800 |
| On brittle fracture in FCC - metal -
P. Panfilov |
806 |
| On fatigue limit of notched components -
M. D. Chapetti, T. Tagawa, T. Miyata |
813 |
| On Predictive Modeling for the assessment of Fracture Behaviour in ferritic alloys -
A.N. Kumar |
819 |
| On size of quantum bag and cracking -
K. J. Cheng, S. Y. Cheng |
825 |
| On the applicability of the essential work of fracture method to thick abs Se(b)-specimens -
P. Luna, E. Lievana, C. Bernal, P. Frontini, Y.-W. Mai |
829 |
| ORAL REFERENCE: ICF100650OR |
829 |
| |
829 |
| ABSTRACT |
829 |
| |
832 |
| |
832 |
| The EWF was simulated by elastic-plastic FEM anal |
832 |
| Figure 6 shows the deformed configuration at crack initiation, together with the distribution of equivalent plastic strain. It is worth to note that as experimentally observed the numerical model predicts crack propagation before the full ligament yields |
833 |
| CONCLUSIONS |
834 |
| ACKNOWLEDGMENTS |
834 |
| On the crack extension force of curved cracks -
K. Eriksson |
835 |
| On the crack stability in metal particulate reinforced brittle matrix composites -
M. Kotoul, R. Urbis |
842 |
| On the dependence of the weibull exponent on geometry and loading conditions and its implications on the fracture toughness probability curve using a local approach criterion -
P. P. Milella, N. Bonora |
848 |
| ABSTRACT |
848 |
| On the detection of fatigue damage prior to surface indication -
G. Wheatley, D. Barton, K. Davey |
854 |
| ABSTRACT |
854 |
| INTRODUCTION |
854 |
| DISCUSSION |
858 |
| CONCLUSIONS |
859 |
| REFERENCES |
859 |
| On the ductile fracture in cylindrical tube bulging under impulsive loading -
Y. Sato, K. Kono, H. Ogawa |
860 |
| On the essential work of fracture: Application to characterise thin polymer films fracture -
L. Cousin-Cornet, M. Nait Abdelaziz, C. C. Cazeneuve, G. Mesmacque |
866 |
| EXPERIMENTAL INVESTIGATION |
867 |
| RESULTS AND DISCUSSION |
868 |
| Conditions on ligament length |
868 |
| CONCLUSION |
870 |
| |
871 |
| |
871 |
| NOMENCLATURE |
871 |
| REFERENCES |
871 |
| On the fatigue crack tip driving force: Role of crack tip plasticity -
G. Glinka, R. L. Holtz, K. Sadananda, A. K. Vasudev |
872 |
| ON THE FATIGUE CRACK TIP DRIVING FORCE: |
872 |
| ROLE OF CRACK TIP PLASTICITY |
872 |
| ABSTRACT |
872 |
| Keywords |
872 |
| INTRODUCTION |
872 |
| CONCLUSIONS |
876 |
| REFERENCES |
876 |
| On the size scaling of cleavage toughness in the transition: A single variable experiment and model based analysis -
H. J. Rathbun, G. R. Odette, M. Y. He |
878 |
| Optimal shape design of stress releasing holes -
P. Pedersen |
884 |
| Optimization of a dynamic fracture process with 1D model -
H. Maigre |
890 |
| On establishing factor significance on the delamination fracture toughness of a composite laminate - A. Pelegri, A. Tekkam |
896 |
| Optimizing cement-based coatings with respect to shrinkage crack formation -
G. Martinola |
902 |
| Optimizing structural integrity through reliable residual stress measurement -
L. Edwards |
908 |
| ABSTRACT |
908 |
| KEYWORDS |
908 |
| INTRODUCTION |
908 |
| Structural assessment of Reheat cracking in Austenitic welds |
909 |
| Fatigue assessment of Cold Expanded Holes |
911 |
| The future |
913 |
| Acknowledgements |
913 |
| References s |
913 |
| Oxide fiber-coatings for controlled fracture in robust ceramic composites -
R. Kerans |
914 |
| Oxygen enhanced crack growth in nickel-base superalloys under sustained and fatigue loading -
R. Wei, Z.-F. Huang, C. Miller, G. W. Simmon |
920 |
| Particulate toughening of unsaturated polyester: effect of particle size and volume fraction -
R. P. Singh |
926 |
| PARTICULATE TOUGHENING OF UNSATURATED POLYESTER: |
926 |
| EFFECT OF PARTICLE SIZE AND VOLUME FRACTION |
926 |
| |
926 |
| Raman P. Singh |
926 |
| Department of Mechanical Engineering, State University of New York |
926 |
| TABLE 1 |
927 |
| MR 10790 Polyester Resin |
927 |
| TABLE 2 |
927 |
| properties of aluminum particles |
927 |
| Aluminum A |
927 |
| Plane stress and strain in side-grooved CCT-specimens -
C. van Kranenburg, T. Riemslag, S. de Vries, J. Zuidema, F. Veer |
932 |
| POSTER REFERENCE : ICF100394PR |
932 |
| PLANE STRESS AND PLANE STRAIN IN SIDE-GROOVED CCT-SPECIMENS |
932 |
| ABSTRACT |
932 |
| KEYWORDS |
932 |
| INTRODUCTION |
932 |
| EXPERIMENTAL DETAILS |
933 |
| RESULTS |
934 |
| |
937 |
| |
937 |
| CONCLUSIONS AND DISCUSSION |
937 |
| REFERENCES |
937 |
| |
937 |
| Onderzoek naar Crack-closure bij vermoeiing van aluminium 5083 |
937 |
| Plastic and buckling behaviours of tubular beams under combined bending and torsion -
G. H. Nie |
938 |
| Plastic behaviour of nano-scale silicon structure at intermediate temperatures -
Y. Isono, T. Namazu, T. Tanaka |
944 |
| Plastic flow and fracture of bulk nanocrystalline ceramics and intermetallics in indentation -
H. Kimura |
950 |
| Plastically dominant / elastically dominant fatigue interaction -
Y. K. Wong, X. Z. Hu, M. P. Norton |
955 |
| Plastic-damage model for stress-strain behaviour of soils -
N. Al-Shayea, K. Mohib, M. Baluch |
961 |
| 1 Department of Civil Engineering, KFUPM, Dhahran 31261, Saudi Arabia |
961 |
| DAMAGE FORMULATION FOR CTC |
962 |
| EXPERIMENTAL PROGRAM |
964 |
| RESULTS AND DISCUSSIONS |
964 |
| Elasto-damage parameters |
964 |
| Plastic strain |
965 |
| ACKNOWLEDGEMENT |
966 |
| REFERENCES |
966 |