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General Lectures
1.
Rice
J. R., =
Heating
and weakening of fault zones during earthquake slip
2. Bigoni D., Di=
fferent
manifestations of material instability in granular media
3. Klarbring
A., Olsson T., Stålhand J., Residual stresses in arterie=
s
4.&n=
bsp;
Kreuzer E., Bockstedte A., Nguyen Q.H., Dynamics and co=
ntrol
of nonlinear mechanical systems
5.&n=
bsp;
Leblond J.B., Devaux., J. Saillard =
P., Coalescence of voids and for=
mation
of shear bands in porous ductile solids – theoretical models and
numerical studies
6. Lin Y. K., Status of stochastic dynamic=
s and
some recent developments
7. Ostachowicz W., Kudela P., Krawczuk M., Żak A., =
Mo=
delling
of damage and wave propagation in structures
8. Stupkiewicz S., Micromechanical analysis of interface layers
9.
Voyiadjis G.Z., =
span>Modeling and simulation of i=
mpact
damage in metals
=
Contributed
Lectures
ORAL
Biomechanics
1. Bedzinski R., Maruszewski K., Stefańska M., Krzak-Roś J., = Haiman K., Kindzi-Kmiecik D., The interaction of bo= ne tissue structures with the surface layer of implants
2. Goldmann T., Sein=
er H., Landa =
M., &n=
bsp;
Determination of the cortical bone elastic coefficients by the
ultrasonic wave inversion- an approach of the wave propagation through the
curvilinear anisotropic sample
3.&n=
bsp;
<=
span
lang=3DEN-US style=3D'mso-ansi-language:EN-US'>John A., Orantek P., The numerical simulation of pelvic bone a=
fter
THA
4.
Kaczmarek M., Pakuła M., Kubik J., Modeling of scattered waves in trabecular=
bones
5. Kourkoulis S. K., Chazisterg=
os P., The
pull-out strength of transpedicular screws and the influence of the
“filling ratio”
6.&n=
bsp;
Lekszycki T., Małdyk P.,
=
Modeling
of osteoporosis development using sensitivity analysis
7.
Majchrzak E., Mochnacki B.,=
Simultaneous identification of biological
tissue thermal parameters
8. Nikolova G., Toshev Y., Co=
mparison
between two different approaches for the calculation of the geometrical, ma=
ss
and inertial characteristics of the human body within a 16-segment geometri=
cal
3D model: a case study of the Bulgarian population
9.
Nowak M., Morzyński M.,
=
Structural
optimization based on the biological pattern
10. Pietruszczak S., Gdela K., Numerical analy=
sis of
Colles’ fracture
11. Ścigała K.,
Adaptation of bone tissue around the joint implants to mechanical
loading
12.&=
nbsp; Staden van R.C., Guan H., Jo=
hnson N.W.,
Loo Y., Analysis of dental implant insertion process using finite element
technique
13.
Stańczyk M., Comparison of selected vascu=
lar
models of heat transfer in perfused tissues
14.&=
nbsp; Szotek S.,
Będziński R., Ścigała K., Pezowicz C., Ciupik L., Turek=
T.,
Maksymowicz K., Anal=
ysis
of the occiput bone deformation- using optical method
Geomechanics
15.
16.&=
nbsp; Kaneko K., Tsutsumi S., Kuma=
gai
K., Two-scale numerical method f=
or spherical
granular assemblies based on the mathematical homogenization theory
17.
Leszczynski J.S., Ciesielski M.,&nb=
sp;
A
discrete model of the dynamics of granular cohesive flows
18.
Michalowski R.L., Zhu M.,
Frost heave in frost-susceptible soils
19.
Morland L.W., Staroszczyk
20.=
Niedostatkiewicz M., Kozicki J., Tejchman J., Measurements of strain localizatio=
n in
granular and brittle specimens using a digital image correlation technique =
21. Parvizi M., Efficiency of
dynamic compaction by low energy
22.&=
nbsp; Pietruszczak
S., Lydzba D., Shao J.F. =
Modeling of chemo-mechanical
interaction in chalk
23.
Rojek J., <=
/b>Combined discrete/finite ele=
ment
modeling of geotechnical problems
24. Rucka M., Wilde K., Tejchman=
J., Experimental studies of
self-excited dynamic effects duri=
ng
granular flow in silos
25.
26. Tejchman J., Górski J., Effect of a spatially correlated random
distributions of initial void ratio on shear zone formation
27.&=
nbsp; Więckowski Z., Numerical modeling of pile driving proces=
s
28.&=
nbsp; Wójcik=
M., Tejchman J., <=
/span>Application of an uncoupled
ALE-formulation of granular flow in silos with and without inserts
Elastic – Plastic
Continuum & Other Field Theories of Solids
29. Abrinia=
K., Baniasadi M., An anal=
ytical
solution for the problem of elastic plastic torsion of arbitrary sections
30.
Alexandrova N.,
31.&=
nbsp; Alshits V.I.,
32. Altenbach H., Kolupaev =
V.A., On the principles of description of
non-classical creep behaviour
33.&=
nbsp; Baranoglu B., Mengi Y., On the use of iterative dual reciprocity
boundary element method on coupled thermoviscoelasticity
34.
<=
span
lang=3DEN-US style=3D'mso-ansi-language:EN-US'>Béda P. B., Portevin-le Chatelier effect=
and
dynamical systems
35.
Bles G., Nowacki W.K ., Tourabi A., On viscoelastoplastic constitutive patter=
n of
fabric materials
36. Bojdo M., Korbel<=
sup> K.,
Kowalewski Z., Pęcherski R.B., Plastic softening conditioned by c=
yclic
torsion: experimental investigations and numerical modelling
37.&=
nbsp; Bruhns O., Xiao H., Meyers A=
., Eulerian elastoplasticity: basic issues,
perspectives and consistency criteria
38.
Dornowski W., Perzyna P.,
Analysis of numerical investigation of localized fracture phenomena =
in
inelastic solids
39.
Epstein M., Śniatycki J.,
=
Fractal
elasticity
40.
Glema A., Łodygowski T., Perzyna P., Sumelka W.,=
Constitutive anisotropy induced by
plastic strain localization
41.
Gombos A., Szabó L., <=
/span>Computational aspects of mic=
ropolar
elastoplasticity
42.
Hoffmann T. J., Chudzicka-Adamczak M., The Maxwell stress tensor for magnetoelas=
tic
materials
43.
Korbel K., Nowak Z., Perzyna P., Pęcherski R. B., Viscoplasticity of nanometals based on Bu=
rzyński
yield condition
44.
Korbel K., Pęcherski R. B., Plastic flow accounting for shear
banding in materials with SDE
45.
Kossa A., Szabó L., =
span>Using logarithmic stress rate in
computational single crystal elastoplasticity
46.&=
nbsp; Lychev S., Nonsymmetric finite integral transformati=
ons
and their application
47.&=
nbsp; Meyers A., Xiao H., Bruhns O=
., Eulerian elastoplasticity: consistent flow
theory
48.
Mill X., - to be supplemented
49.&=
nbsp; Muschik W., Restuccia L.,
50.&=
nbsp; Nowacki J. P., Coupled fields and phenomena=
in
polarizable media
51.
Okayasu T., Kinoshita K., Shimomura T., Hashiguchi =
K.,
Inoue E., Finite element analysis on
deformation behavior of metallic body under non-proportional loading condit=
ion
52.&=
nbsp; Perzyna P., The thermodynamical theory of
elasto–viscoplasticity accounting for microshear banding and induced
anisotropy effects
53.
Romero V., Kanaun S.,
Application of Gaussian approximating functions to the solution of t=
he
second boundary value problem of elasto-plasticity for 2D isotropic bodies =
54.
Stępniewski A., <=
/span>D’Alembert’s
supplemented principle and
55.
Szekeres A., =
i>Thermo-hygro-mechanical aspe=
cts of
drying
56.
Toussi H. E., Arsanjani H. R.,
Open die hot forging simulation using finite volume method
57.&=
nbsp; Winnicki A., Pamin J., Viscoplastic material models ̵=
1;
algorithmic issues and regularization properties
58. Xiao H., Bruhns O., Meyers A=
., <=
/span>Eulerian elastoplasticity:
thermodynamic laws and complete theory
59. Xiao Z.M., Zhang H.X., Chen
B.J., In=
teraction
of a screw dislocation with an interfacial rigid conducting line in
piezoelectric media
60.
Zhuk Y.A., Senchenkov I.K., <=
/span>Two approaches to investigat=
ion of
thermomechanical coupling effects in the elastic-viscoplastic solids with
internal defect
Fracture, Damage Mechani=
cs
& Fatigue
61.&=
nbsp; Bernal J., Romero V., Kanaun S.,&nb=
sp;
=
Boundary
point method applied for bodies with cracks
62.
63.=
Bobiński J., Tejchman J., FE-modeling of strain localization in concrete w=
ith
coupled elasto-plasticity and damage
64.&=
nbsp; Brunac J.B., Leblond J.B.,=
A fatigue propa=
gation
law for elastomers subjected to arbitrary 3D loadings
65. Chrzanowski M., Nowak K.,<=
span
style=3D'mso-spacerun:yes'> Cellular automa=
ta in
damage mechanics: brittle creep rupture case
66. Davydova M., Davydov D., Experimental st=
udy of
statistical peculiarities of glass fragmentation.
67.
Doliński
K., Mróz K.P., =
Modelling of mixed-mode fatigue crack growth in
homogeneous material and bimaterial systems
68.
Kaminski M., Wicker P., Kanouté P., Gallerneau F., Stress gradient effect on the initiation
lifetime of a single crystal supperalloy
69.
Klepaczko J.R., =
Failure criteria for metals =
under
high loading rates
70. Kowalczyk-Gajewska K., Mr&oa=
cute;z
Z., Pęcherski R.B., Micromechanical modelling of polycrystalli=
ne
materials under non-proportional deformation paths
71.&=
nbsp; Kozicki J., Tejchman J., Lattice type fracture model for brittle
materials
72.
Kucharski R., Badur J., On thermodynamically consistent stress corrosion damage model, partia=
lly
based on a set of reaction - diffusion equations: theory, numerical
implementation, calibration on the experimental data and applications
73. Lazarus V., Buchholz F.-G., Wiebesiek J., Crack front twisting in three point bending, comparison between a loc=
al
and a global approach
74. Litewka A., Szojda L., Fracture of mor=
tar
subjected to triaxial state of stress
75.
Liu G.=
,=
Li J.Z.<=
/b>, Shen F., Tan V.B.C.,
76. Loboda V., Shevel’ova A., Pre–fracture zones of an
electrically permeable interface crack in a piezoelectric bimaterial
77.=
Małecki
T.,
78. Mejak G., Imperfect bondi=
ng
with a discontinuous finite interfacial strength
79. Nazarenko L., Influence of
components microdamages accumulation on deformation of three-component
anisotropic composites
80. Nishida S-i, Hattori N, Tuan=
Suhaimi
S., Effect of alloy elements on fatigue
properties of automobile sheets
81.
Okrajni J., Marek A., Junak G., TMF stress-strain characteri=
stics of
P91 steel
82.&=
nbsp; Oleszkiewicz E., Łodygo=
wski T.,
Da=
mage evolution of metal matrix composites under transverse static and dynamic loadi=
ng
83. Plekhov O., Uvarov S., Naima=
rk
O., Collective mode of defects a=
s a
mechanism of failure waves: experimental and theoretical study
84.&=
nbsp; Radayev Y.N., Kurnysheva N.A=
., Numerical analisys of strain-damage coupled problems represented by isostatic co-ordina=
te
net
85. Rusinek A., Zaera R., Sensitivity analysis for nec=
king in
dynamically loaded ring
86.
Shodja H.M., Ojaghnezhad =
F., <=
span
style=3D'mso-spacerun:yes'> Penny-shaped cracks and anticracks under polynomial loading
87. Sobczyk K., Trębicki J., Effects of random microstruc=
tural
stresses on fracture estimation
88.&=
nbsp; Sosnowski W., Mar=
czewski
A.,
89.
Souchet R., Geometrical and mechanical constraints between a damaged continuum and its vir=
gin
sub-scale
90.
91. Tang S., Guo T.F., Cheng L.,=
Vapour <=
span
lang=3DEN-US style=3D'mso-ansi-language:EN-US'>pressure and void shape effects on void growth and rupture of polymeric solid=
s
92. Węglewski W., Basista M.,
93.&=
nbsp; Wierzbicki T., Modeling and solutions for ductile fracture
94.&=
nbsp; Wilczyński B., Mr&oacut=
e;z Z=
.,
Fatigue shape optimization using continuous hardening model formulation
95. Yoshida=
A.,=
Ohue=
Y., Seki=
M., Rolling contact fatigue of sintered transmission element and its life assessment ba=
sed
on fracture mechanics
96.
Żebro T, Pamin J.,
Two models and <=
span
lang=3DEN-US style=3D'mso-ansi-language:EN-US'>algorithmic options for gradient
damage coupled with plasticity
Micromechanics
97. Berka L., On a
mechanics of crushing and comminution of solids
98.&=
nbsp; Elżanowski=
b> M.,
99. &=
nbsp;
Gross D., Mueller
R. Interaction of defects in
piezoelectric materials: recent results
100. Hess S., Structural changes in micromechanic=
al
sliding friction – theory and non-equilibrium molecular dynamics comp=
uter
simulations
101.
Kaczyński A., Matysiak S., Some antiplane problems for a micro-perio=
dic
reinforced elastic composite containing an interface crack or a rigid line =
inclusion
102. Kursa M., Petryk H., Modelling of
elastic-plastic behaviour of metal crystals by incremental energy
minimization
103. Manzhirov A.V., Kazakov K. E., Fedotov <=
/span>I., Wear of elastic foundations with inhomogeneous coatings
104. Marciniszyn A., Stupkiewicz S., Micromechanical
analysis of lubricated contact phenomena
105. Mrozek A., Burczynski T.,&nb=
sp;
Analysis of the material behaviour at the nanosc=
ale
106.
Naderi D., Masood H., Abedian A., Adib S., Frictionless
non-symmetrical contact of a tilted wedge
107.=
108. Pettermann H.E., Huber C.O=
.,
Luxner M.H.,
109. Ptaszny J., Fedelinski P.,=
Fast multipole boundary element met=
hod
analysis of plates with many holes and inclusions
110.=
=
Pyrz R., Bochenek B., Di=
screte-continuum
transition at interfaces of nanocomposites
111. Sadowski P., Stupkiewicz S.<=
/span>,<=
span
style=3D'mso-spacerun:yes'> A model for prediction of effectiv=
e heat
transfer coefficient of rough surfaces in contact
112. Staroszczyk R., On the anisotropy of polar ice
113. Sudak L.J., Wang =
X., An
inclusion of arbitrary shape with imperfect interface in antiplane elastici=
ty
114.
Touboul M., Nadot-Martin C., Dragon A., Fanget A., =
b> A non classical scale transition fo=
r a
class of viscoelastic particulate composites at finite deformation
115.
Tsutsumi S., Kaneko K., Toyosada M., Hashiguchi K., <=
span
lang=3DEN-US style=3D'mso-ansi-language:EN-US;mso-bidi-font-weight:bold;mso=
-bidi-font-style:
italic'> Anisotropic res=
ponse
predicted by multiscale analysis introducing granular element method
116. Zmitrowicz=
A., A modelling of contact problems =
for
wearing out solids
Thermomechanics of Alloy=
s,
Phase Transitions & Shape Memory Alloys
117. Garstecki A., Pozorski Z.,
Ziopaja K., Różański L. <=
span
style=3D'mso-spacerun:yes'> Damage detection and evaluation using discrete wavelet transform and =
heat
transfer experiments
118. Gromada M., Miszu=
ris G.,
On the axisymmetric tensile test: are there improvements of classical
formulae possible?
119. Inoue T., Tanaka T., Unified constitutive equation for transformation
plasticity and identification of the TP coefficients
120.=
Kalynyak B., Teslyuk A., Tokovyy Yu., <=
span
style=3D'mso-spacerun:yes'> The analysis of
elastic and thermoelastic equilibrium of circular inhomogeneous in radial
direction cylinders
121.
Kowalski
S.J., Destruction of materials owing to i=
ntensive
phase transitions in microwave drying
122. Lexcellent Ch., Gondor G., <=
/span> Thermodynamics =
of
close or open two phase systems: from shape memory alloys to metal-hydrogen
systems
123.=
Maj M., Oliferuk W., Effect of pre-strain direction on energy storage process during tensile deformation =
of
polycrystal
124.=
Maksimkin O.P., Gusev M.N., Toktogulova D.A., Osipov I.S., =
i> Dissipation and accumulation of energy du=
ring
plastic deformation of metal materials irradiated by neutrons
125. Mochnacki B. Majchrzak E., Identification =
of
macro and micro parameters in solidification model
126.=
Oliferuk W., Beygelzimer Y., Maj M., Synkov S., Reshetov A., =
Energy storage =
rate
in tensile test of ultrafine grained titanium produced by twist extrusion
127.
Parkitny R., Marek M., Cellular automaton mod=
el for
binary alloy microstructure prediction
128.
Parkitny R., Węgrzyn-Skrzypczak E., Skrzy=
pczak
T., Numerical simulation of the solidification
process with motion of the fluid in liquid and mushy zone
129. Pieczyska E. A., Gadaj S. P., Nowacki=
W. K.,
Tobushi H., Thermomechanical properties of TiNi shape memory alloy=
-
transformation induced effects
130.
Plekhov O., Uvarov S., Naimark O., Energy storage monitoring in metals as a =
way of
estimating the efect of damage evolution on the strength and endurance limit
(theoretical and experimental study)
131.
Puglisi G., Nucleation and phase fronts propaga=
tion
in a multi-stable lattice with weak non-local interactions
132. Rączka W., Sibielak M.,=
SMA linear actu=
ator -
testing and modeling
133. Skoczeń<=
b> B., FGMs
134. Starenchenko S., Starenchenk=
o V., Regularities and mechanisms of strain-ind=
uced
order-disorder transformation
135.
Tobushi H., Hayashi S., Hoshio K., <=
/span>Shape memory composite with =
SMA and
SMP
136.
Tommasi de D., Foti P., Piccioni M.D., Phase transformations and hysteresis in
isotropic elastic bodies
137. Wolff M., Böhm M., Meier
S., Modeling of carbon diffusion=
and
ferritic phase transformations in an unalloyed hypoeutectoid steel
138.
Ziółkowski A., Experimental
verification of fundamental theoretical assumptions underlying macroscopic theory of pseudoelasticity
139.
Zubelewicz A., Zurek A.K., Potocki M.L., =
span>Dynamic dislocation theory in
application to copper under extreme loading rates
Mechanics of Structure &=
amp;
Optimization
140.
Abushawashi<=
i> Y.M.,=
Eshtewi
S.H., =
span> <=
/span>Discre=
tization
and analysis in finite element for plate bending
146.
Czarnecki S., Application of the peano curve-based global search algorithm in the topology and geometry optimization
of truss structures
147.
Dems K., Mróz Z., Application of path-independent integrals=
in
sensitivity analysis, optimization and identification for transient heat
problems
148. Fialko S., Sparse incomple=
te
Cholesky conjugate gradient iterative solver for analysis of large-scale pr=
oblems
of structural and solid mechanics.
149. Górski R., Fedeli =
4;ski P.,
Optimal reinforcement of
plates modeled by the coupled boundary and finite element method
150. Korycki R., Dems K., =
sup> Sensitivities of
state fields in the heat and mass transfer problem within the textile
structures
151.=
Kourkoulis S. K., Ganniari-Papageorgiou E., Bending of frag=
mented
architraves restored with titanium bars
152.
Lamine B., Djamel H., Sadok =
B., Analysis of skew rhombic plates using a strain based solid finite
element
153. Lengiewicz J., Stupkiewicz S=
.,
Korelc J., DDM-based sensitivity analysis for frictio=
nal
contact problems in 3D
154.
Lewiński T., Rozvany G.I.N., =
<=
span
style=3D'mso-spacerun:yes'> On Michell cantilevers supported on an edge of a trapezoidal domain<=
span
style=3D'mso-bidi-font-weight:bold'>
155.
MelcerBratislava
156.
Przybylski J., Vibration and stability of articula=
ted
columns with piezoelectric actuators
157.
Sapiński B., Snamina J., <=
span
lang=3DEN-US style=3D'mso-ansi-language:EN-US;mso-bidi-font-weight:bold;mso=
-bidi-font-style:
italic'> Analysis of non-steady state motion of a =
cable
with a magnetorheological damper attached
158.
Stan S., Mătieş V., Bălan R., Some aspects
regarding the workspace optimization of a two degree of freedom parallel
mini-robot
159. Tocarciuc A., Numerical analy=
sis of
a traveling isolated water slug flow through pipe elbow varying pipe diamet=
er
and propulsion gas inlet velocity
160.=
Zacharopoulos D.A., Kalaitzidis P.A., Balopoulos V.D., Minasidis L.E., Gdoutos E.E., Experimental evaluation of beam the=
ories
with core-flexible sandwich speci=
mens
Shells: Theory &
Computations
161.=
Chróścielewski J.,
162. Chróścielewski J=
., Witkowski
W., On=
the use
of enhanced strain formulation in 6-field nonlinear shell theory with
asymmetric strain measures
163.=
Dinkler D., Pontow J., Perturbation sensitivity and limit loads of
shells
164. Eremeyev V.A., Pietraszkiewi=
cz W., On nonlinear mechanics of shells wi=
th
phase transformations
165. Eremeyev V.A., Pietraszkiewi=
cz W., On the local sy=
mmetry
group in the general theory of elastic shells
166.=
Gavrylenko G.D., Upper and lower bounds of critical loads =
for
ribbed shells.
167.=
Grigorenko Ya., Grigorenko A., Yaremchenko S., On some approac=
hes to
solving the problems of the theory of orthotropic shells with
complex shape on the basis of classic and refined models
168.
Konopińska V., Pietraszkiewicz W., <=
span
style=3D'mso-spacerun:yes'> Exact resultant equilibrium conditions for intersecting shells
169. Kubiak T., Mania R., Koł=
;akowski
Z., Kowal-Michalska K., Multi modal analysis of dynamic response of thin-walled plated struct=
ures
170. =
Opoka S., Influence of boundary conditions on axial buckling load of circular
cylindrical shell
171. Tomczyk B., Dynamical stabi=
lity
of thin periodic cylindrical shells
172. Wisniewski K., Turska E., <=
span
lang=3DEN-US style=3D'mso-ansi-language:EN-US;mso-bidi-font-weight:bold'> Enhanced Allman=
-type
quadrilateral for membrane part of shell elements
POSTERS
173. Bielski W., Gambin B., Krugl=
enko E., Existence problems in incompressib=
le and
slightly incompressible magnetics
174. Bielski W., Wojnar R.=
,
Nonstationary flow through porous piezoelectric body with two scale structu=
re
175. Bobylov A., Dobrova Yu., Sut=
urin E.<=
span
style=3D'mso-spacerun:yes'> Numerical modeling of forced vibra=
tions
of deformable solids under unilateral constraints
176. Cieszko M., Kempiński M=
.,<=
span
style=3D'mso-spacerun:yes'> Application of limit models of pore
architecture to determination of pore size distribution in porous materials
based on the mercury intrusion curves
177. Cieszko M., Pakuła M., =
Kubik J.,<=
span
style=3D'mso-spacerun:yes'> Scattering of elastic waves in ran=
domly
layered materials
178. Diaferio M., Foti D.,=
Mechanical behaviour of buildings =
under
seismic input in near-fault areas
179. Figurska M., Mizera A.,
Stańczyk M.,
Modeling of wear particle diffusion at the bone-implant interface
180. Gadaj S. P., Nowacki W. K.,
Pieczyska E. A., Tobushi H.,
Martensite and reverse transformation during two-sides simple shear =
of
NiTi SMA
181. Guminiak M., Sygulski R., Inertial coupling analysis of syst=
em of
plates immersed in fluid by the boundary element method
182. Kołakowski Z., Kote =
2;ko M.,
Kubiak T., Mania R.,
Ultimate loads and post-failure behaviour of thin-walled z-profiles
under compression
183. Kosiński W.<=
/b>,<=
span
style=3D'mso-spacerun:yes'> On soft modeling and calculation
184. Kruglenko E., Galka A., Gamb=
in B.,<=
span
style=3D'mso-spacerun:yes'> The young measure valued solution =
in
micromagnetics: a numerical example
185. Kucharski S.,=
Evaluation of structural changes a=
nd
residual stress in laser hardened layers
186. Leniowska L.<=
span
lang=3DEN-US style=3D'mso-ansi-language:EN-US;mso-bidi-font-weight:bold'>,<=
span
style=3D'mso-spacerun:yes'> Effect of the fluid loading on the=
plate
vibration control
187. Manka M., Uhl T.<=
/b>,
Automatic balancing of rotating machinery: design and experimental validati=
on
188.
189. Parvizi M.,Attenuation of stress and velocity=
waves
by impact load
190. Pieczyska E., Tobushi H., Ga=
daj S.,
Nowacki W. K., Hoshio K., Makino Y., Lüders-like deformation behav=
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