Biofluid mechanics: proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany
Gespeichert in:
Format: | Tagungsbericht Buch |
---|---|
Sprache: | Undetermined |
Veröffentlicht: |
Düsseldorf
VDI-Verl.
1994
|
Ausgabe: | Als Ms. gedr. |
Schriftenreihe: | Fortschritt-Berichte / VDI : Reihe 17, Biotechnik
107 |
Schlagworte: | |
Online-Zugang: | Inhaltsverzeichnis |
Beschreibung: | Literaturangaben |
Beschreibung: | X, 741 S. Ill., graph. Darst. |
ISBN: | 3183107171 |
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245 | 1 | 0 | |a Biofluid mechanics |b proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany |c Dieter Liepsch (ed.) |
250 | |a Als Ms. gedr. | ||
264 | 1 | |a Düsseldorf |b VDI-Verl. |c 1994 | |
300 | |a X, 741 S. |b Ill., graph. Darst. | ||
336 | |b txt |2 rdacontent | ||
337 | |b n |2 rdamedia | ||
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490 | 1 | |a Fortschritt-Berichte / VDI : Reihe 17, Biotechnik |v 107 | |
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Datensatz im Suchindex
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adam_text | Table
of Contents
Foreword
..................................................................................................................................
ι
Sponsors
....................................................................................................................................
и
Table of contents
...............................................................................................................
m
Clinical Studies: Anatomical and Physiological Models
Secondary flows in the cardiovascular system: The pivotal role of phase separation
Schmid-Schönbein,
H
...........................................................................................................1
Hemodynamics and the afferent artery of arteriovenous fistulae
Stehbens W.E.,
Jones,
G. T.
.................................................................................................5
Special fluid dynamic profiles in different models of arteriovenous fistulas:
Consequences for patients on dialysis
Pflugbeil,
G.
.Tröster,
J., Kurz,
P., Liepsch,
D., Maurer.P.C
...............................................
U
Determination
of pulse wave velocity in arteries with pressure tip catheters leads
to incorrect results
Schima, H., Raderer,
F.,
Tsangaris, S., Siegl, H.Jrubel, W.,
Moritz
W.............................
/5
Angjography method for fluid mechanical studies
Smedby, Ö
.........................................................................................................................21
The role of geometry and distensibility of the infra-renal and aorto-iliac
bifurcations
in arterial disease
Roach,
МЯ.
Fung, K., MacLean, NJ>
................................................................................27
Shear rate and thrombin transport
Affeld,K.,Gadischke,J
......................................................................................................35
Physiological and Clinical Studies
Biomechanics and the transport function of veins
Kenner,
T
...........................................................................................................................41
Validation and use of an optical technique for the measurements of pulse wave
velocity in conduit arteries
Bonner, S.E.,
Dawson, R.,
Martyn,
CJV., Greenwald, S.E
...................................................43
Endothelial and vein wall response to turbulent shear stress from arteriovenous
anastomoses (AVAs)
Schalin,
L., Moberger,
G
....................................................................................................53
In vitro blood flow visualization in vein models with different size clots trapped
in a classical Opcetra and a symmetrical Antheor
caval
filter
Morin,
G., Perrault,
R.,
Doffin,
J.,
Fourgeau
P..................................................................
67
Is reflux necessary for closng a venous valve?
Qui, Y.,
Wang, S.-K., Hwang,
N.H.C
.................................................................................73
Mechanoluminescence
of blood flow
Orel,V.E
............................................................................................................................S3
Noninvasive estimation of left ventricular max (dP/dt) from aortic flow acceleration
and pulse wave velocity
Sugawara, M.,
Senda
S.,
Masugata
H.,
Nishiya
T., Matsuo H............................................
89
Heart rate influence on arterial compliance using pressure contour wave analysis
Segers,
P., Verdonck, P.,
Verhoeven
R.,
Duprez
D.,
Debuyzere,
M.....................................
91
Effects of cardiac contraction on the microvessels in the interveniricular system
Pfeffer,
M.,
Goto,
M.,
Yada
T.,
Tachibana,
H., Hiramatsu,
O., Kajiya
F
..........................103
СТ
analysis of the role of uiac distensibility in balloon angioplasty
MacLean, N.F., Boyd, CJ., Sherebrin, M.H.,
Rankin
RU.,
Fenster
Α.,
Roach,MJ(
......................................................................................................................
IW
Coronary bypass monitoring with a new method for the assessment of bypass
hemodynamic-methods and clinical experiences
Schmidt, P., Lass, M.,
Brucher.
R.,
Paulát,
К.
Ven
U.
Helferich., D.,
FrenkenbergerH.,
НаппекшпА
.....................................................................................
Н7
Blood pressure and velocity relation in tissue
Wang, WX., Hsu
TL.,
Chen HL
.....................................................................................
1
19
Surface properties of airway mucus exposed to acid aerosol
Lee, MM., Green, F.H.Y., Zhang,
Y., Schurch, S
.............................................................133
MRI
Studies
Magnetic resonance (MR) angiography of the coronary arteries
Scheidegger, MB.,
Vassalli,
G.,
Hess,
ОМ.,
Boesiger, P.................................................145
In vivo magnetic resonance blood flow measurements in vessels with complex flow
patterns
Botnar, R., Scheidegger, MB., Meier D., Boesiger, P.
.....................................................149
Magnetic resonance angiography of the human carotid bulb
1.
Flow
visualization in human arterial castings.
Kerber, C.W., Buxton, R£, Knox,
К
.................................................................................153
Magnetic resonance angiography of the human carotid bulb
2.
Experimental
evaluation of MR accuracy and artifacts
Buxton, RB, Frank, LM., Kerber C.W
.....................................,.......................................154
New methods for the evaluation of pressure and flow patterns in the coronary arteries
and aortic root
Einav,S.,Zaretsky,
U
.......................................................................................................155
Magnetic resonance: a new method for studying the hemodynamics of artificial
bean valves? A comparison with LDA
Walker, P.G., Oyre S., Pedersen EM.. Fontaine,
Α Α.,
Yoganathan AJ>.........................167
Vascular imaging: Current status and problems
Hübsch,
Ρ.........................................................................................................................
173
Curvature and Branching Studies
Quantitative morphology of arterial casts
Matsuo,T.,Okeda,R
........................................................................................................
¡si
Contribution of flow choking to dynamic stenosis resistance
Ku, DJN., Powell, B.E., Downing, JM
..............................................................................187
Dependence of fibrin thrombsis formation in an arterial branching model on
shear and residence time
Reininger, AJ., Reininger,
СВ.,
Heinzmann,
W.,
Wurzinger. LJ.
....................................197
Secondary flow augmentation in the
diastolk;
phase of physiologically intermittent
fio
w
in a curved tube
Konno,
T., Satoh. Y.. Tanishita,
К........................................................
205
Analysis of error in arterial propagation coefficient measurement
Bertram, CD., She,
J
.......................................................................................................271
Shear stress and exposure times within severely stenosed coronary and carotid
arteries
Ringers, S.E., Boreda R.,
Fatemi, R.S
..............................................................................225
Potential for hemodynamic stimulation of platelets at critical coronary stenoses
Rittgers, S.E., Acharya, S., Mugler, DM
..........................................................................237
Analysis of blood flow field in glass capillaries and in vivo microvessels by axial
tomographic and image velocimetry techniques
Singh, M., Prakash
В
........................................................................................................239
Experimental analysis of Newtonian and non-Newtonian fluids pulsatile flow through
elastic
Y
models
Mijovic,B.,Liepsch,D
.....................................................................................................255
Collapsible Tubes
Mathematical modeling for the unsteady flow separation through a collapsible
channel
Matsumoto,
T.,
Matsuzaki, Y.
..........................................................................................261
Towards a rational description of flow in collapsible tubes.
Pedley, TJ., Lowe, T.W.,
їмо, СУ.,
Rast, M.P.................................................................271
On the collapse of compliant axisymmetric stenoses: conditions and nature
of collapse and effects on velocity distribution
Stergiopulos.N., Moore J.E.,GolayX.,Ku DJV.,
Meister
J.-J
..........................................273
Measurement of oscillatory flow pressure gradient in an elastic tube
Cohen, MJ., Wang,
D.M.
Tárbeli,
JM.............................................................................
283
Heart and Heart Valve Studies
Hydrodynamic characteristics of a new stentless mitral valve allograft:
in vitro results
Vetter, H.O.,
Yoganathan A.P.,
Fontaine
Α.,
Erhorn,
А.ДеіспапВ
.................................287
In vitro study of
occluder
cinematics of the SJM aortic heart valve
protheses
in pulsatile flow
Brücker,
С,
Köhler, J.......................................................................................................295
In vitro steady flow
3-D
turbulence structure distal to normal and stenosed
aortic valve
prostheses
Fontaine, AA., Walker P.G.,
Yoganathan, AJ>.................................................................307
In vitro steady leakage jet formation of technical heart valves protheses-
a photo-video optical and colour
Doppler
study
Köhler,
J.,
Wim,
R., Fehske,
W
........................................................................................5/5
Influence
of rheological behavior of model fluids on the in-vitro testing
of artificial heart valves
Pohl,
M.,
Wendt,
M.O., Werner,
S.,
Koch,
В.,
Lerche,
D.,
Affeid,
К.,
Schicht,
К
........................................................................................................................324
In vitro
evaluation of the hydraulic opening area of heart valve prostheses-
the influence of test fluid rheology and valve type
Wendt,
MO., Werner, S. Kuhnei R.,
Pohl
M.,
Koch
В.,
Lerche D.....................................325
Prosthetic heart valve cavitation in blood
Garrison, LA., Lamson, T.C.
Deutsch
S.,
GeselowitzDB.,
Tárbeli,
JM
.........................................................................·...........................................
327
¡п
-vitro
imaging of
nomai
and thrombosed bileaflet valves: mechanics of
impaired leaflet opening.
Rambod,
£.,
Gharib, M., Einav.
S
...................................................................................331
Hydrodynamic aspects of artificial heart valves and total artificial heart
replacement
Klimeš,
F
..........................................................................................................................
333
The influence of rheological components on blood flow in vascular
prostheses
Yurechko, VJt., Shtengold, EM., Ilminsky, VM., Filin, EM.,
Frey,
R.............................
341
Dynamic filling characteristics of the left ventricle
Gharib, M., Hammache, M., Rambod.E., Shiota,
T.,
Sahn, D..........................................343
Ultrasound Studies
Slosh phenomenon of coronary arterial flow and its patholphysiological
significance
Kajiya,
F.,
Matsumoto,
T.,
Yoda,
T.,
Hiramatsu,
O., Kimura
Α.,
Goto,
M.,
Ogasawara,
Y.,
Tachibana,
H.,
Tsujioka,
К
......................................................347
Color-Doppler-rheography: Principles and experimental results
Hammentgen, R., Schmidt, H.,
Klapp,
Α.,
Godder,
VS.,
Schiffmann,
J.,
Papenfuß,
HJ-.G/eichman,
U
..................................................................354
Color-Doppler-rheography:
Physiological range of the fluid dynamics
in large vessels
Hammentgen, R., Schmidt H.,
Schiffmann, J., Papenfuß, HJ.,
Gleichmann,
U
................................................................................................................355
Color-Doppler rheography: Monitoring
of the fluid dynamics in die common
carotid artery during extracorporal circulation in open heart surgery
Hammentgen. R.,
Шпаті,
J.,
Schmidt,
HJ.,
Nirow,
N.,
Dramburg. W.,
Schiffmann,
J.,
Papenfuß,
H. J.,
Gleichmann,
U.,
Körfer,
R
............................................356
Evaluation
of wall and atherosclerotic plaque motion in the carotid bifurcation
using 4D ultrasound
Meairs,
S., Hennerici, M
.................................................................................................357
Dynamics of asymmetric
régurgitant
jets: effect on color
Doppler
jet areas
Rambod, E., Einav,
S
......................................................................................................363
On the use of the Womersley s theory for
nie
computing of hemodynamical
parameters from ultrasonic velocity profiles: an in vivo application
to the case of the blood viscosity.
Bensalah,
Α.,
F
laud,
Ρ.....................................................................................................
365
Duplex sonography with color flow imaging for the assessment of hemodynamics
in carotid artery disease
vonReutern.GM
............................................................................................................366
Analysis of LDA and ultrasound
Doppler
data obtained in models of carotid
bifurcation with rough surface in carotid sinus
Kaluzynski, W.Mepsch.D.W.
.........................................................................................367
Doppler
frequency of spectral broadening as an indicator of the severity
of arterial stenoses
Talukder, NX. Talukder, K.
..................................................................................375
Understanding
Doppler
ultrasound data of mitral valve flow using lumped
parameter modeling
Verdonck, P.,
Segers,
P.,
Verhoeven,
R.............................................................................
381
Mathematical Models
Nonlinear wave and chaos in large blood vessels
Bao,
G..............................................................................................................................
392
The axisymmetric haemodynamic analysis of blood flow with
intra
aortic
balloon pumping
Chen.B.-F
........................................................................................................................393
Optimisation of blood flow measurement in large vessels
Ciupa,
R.V.,
Ciupa, AA
..................................................................................................395
A mock
arterial
circulation via computer
Duros,
J.,
Kufahl, R.H., Clark, M.E
.................................................................................399
A theoretical model for wave propagation in arteries
Gupta, R.S
........................................................................................................................411
A mathematical hypothesis for renal arterial stenosis in renal transplantation
Coli,
L.,
Buscaroli,
В.,
Mosconi,
G., Guiidicissi,
G., De Giovanni, P.,
Moschetta,
МЯ.,
Paltotti,
Α.,
Pallotti.G., Pettazzoni, P., Stefoni, S
..................................421
Modeling of flow field around aortic artificial valves
Wojnarowski, J., Mirota,
К
...............................................................................................429
Numerical Studies
Respiratory rhythm effects on the total cavopulmonary connection fluid dynamics
Dubini,
G.,
Capprarucci,
L.,
de Levai
МЯ.,
Pietrabissafi-,
Montevescchi, FM.,
Fumerò
Д
.........................................................................................445
Pulsatile
flow in aorto-coronary bypass
3-D
model
Inzoli,
F.,
Migliavacca,
F.,
Maniero,
S
.............................................................................455
Numerical simulation of blood flow in large vessels on massively parallel computers
Matsuzawa.T
...................................................................................................................464
Numerical simulation of mass transport in arterial systems
Rappitsch,
G.,
Përktold,
К...............................................................................................
.465
Problems in application of viscoelastic models to the numerical analysis of
arterial blood flow
Perktold, K., Leuprecht,
Α.,
Peter R.0
..............................................................................471
The effect of moving walls on pulsating flows: relation to the coronary blood flow
Tsangaris, S., Rammos, KS.,
Pappou Th.,
Koullias G., Panagopoulos, F.G
.....................477
Particle flow behaviour and pressure distribution in a
3-D
T-junction
Xu.XY., Collins,M.W.
....................................................................................................489
Row details and fluid particle paths in model by-pass grafts
Henry, FS., Hughes,
P.E.,
How, T.V., Collins, M.W.
........................................................497
Endothelial Cells
Hemodynamics, the endothelium and atherosclerosis
Nerem,R.M
.....................................................................................................................-508
The intracellular calcium response of single endothelial cells subjected to fluid-
imposed steady and pulsatile shear stress.
Helmlinger. G., Berk, B.C.,
Nerem.
RM..........................................................................
509
The role of GPiB and
GPIIb
-Ша
in the adhesion and aggregation of platelets on
human type VI collagen under physiological shear conditions.
Ross, JM.,
Mclnňre, L.V.,
MoakeJL., Rand,
J M
..........................................................523.
Fluid shear stress changes the levels of expression of adhesion molecules on
human umbilical vein endothelial cells in vitro
Sampath, R.,
Kukiełka, GL.,
Smith, C.W., Eskin, S. G. Mclntire, L.V.
.............................531
The design of an apparatus for subjecting vascular endothelium to physiologic
levels of boui fluid shear stress and circumferential cyclic stretch
Suciu, A, Zhao, S. Moore, J.E.
Burki,
E.,
Burnier,
M.,
Brunner,
НЯ.,
Meister,
J J
.....................................................................................................................541
Flow direction affects shape and cytoskeletal structure of cultured bovine aortic
endothelial cells
Kataoka,
N..
Ujita
S.,
Ogawa
Y., Sato, M
........................................................................551
Arterial
endothelial
cells align to reduce the local shear stress
Yamaguchi.T.
.................................................................................................................-557
Endothelial glycosaminoglycan synthesis increased by laminar shear stress
Mitsumata,
M., Arisaka, T., Kawasumi, M., Yoshida, Y
...................................................563
Flow Visualization and LDA Studies
Determination of low wall shear stress regions within ventricular assist
devices using mass transfer techniques
Clark, C, Jin,
W
..............................................................................................................564
Particle-Image-Velocimetry (PTV)-a tool for measuring unsteady vortical
flows in models of branching vessels: Application to the confluent
flow in a rigid W-T-junction
Bräcker,
С
.......................................................................................................................
J65
Swirl in
Fontän
connections: flow visualization and LDA studies
Kim, YM., Fontaine,
Α Α.,
Walker, P.G.,
На, В.,
Lucas, CL.,
Yoganathan, A.P.............................................................................................................
_577
Experimental study of pulsatile flow in elastic model of PETP vascular graft
Konfrst, J.,
Uepsch, D.W., Weigernd,
К...........................................................................
582
Development of fiber optic laser
Doppler
velocimeter for measurements of local
blood velocity
Ohba,K.,YoshiokaK
......................................................................................................
S83
An in vitro arterial preparation for acute study of endothelial permeability
responses to defined shear stress conditions
Waliszweski, M., FryD., Kuban
В.,
Friedman,
M
............................................................585
LDA measurements in anatomically distensible carotid artery models under
physiological conditions.
Uepsch,
D.W., Pflugbeil,
G..
Maurer,
P.C,
Weigand, K
..................................................593
Effect of secondary flow on wall shear stress through asymmetrical
branch during laminar steady flow
Yamaguchi,
R
...................................................................................................................
6О3
Laser fluorescence detection of plaque
Unsold,
£.,
Ischinger,
T.,
Pesarini, A
...............................................................................612
Arterial
Grafts-Anastomosis
Flow patterns and wall shear stress in a mildly stenosed femoral artery
Cavalcanti,
S....................................................................................................................
613
Hemodynamic effects of arterial graft design: A simulation study
Cavalcanti,
S.,
Gnudi,
G...................................................................................................
619
An in vitro model study of cerebral circulation in presence of carotid stenoses
BossuetPh., Cassot,
F., Marc-Vergnes, J.P.,
Fušeri
J., Rieu,
R
........................................627
Fluid mechanical simulation of left ventricular aneurysms
Merzkirch,
W.,
Hodlaná,
P.
H
...........................................................................................635
Wall shear stress and flow pattern through the anterior communicating artery
model in steady flow
Ujiie, H., Okabe, H., Yamaguchi, R.,
Takakura, K............................................................
641
The hemodynamics of arterial prosthesis
Pelle, G., Radier,
C, Oddou, C
........................................................................................652
New volumetric parameters and ratios in abdominal aortic aneurysms and
their potential influence on indication for elective surgery
Coppellar,
WA., Engelmann,
H.,
Furst
H.,
Blechschmidt,
S.,
Wild,
M.,
Lauterjung, L..................................................................................................................653
Effects of compliance and diameter mismatch on the wall shear rate distribution near
an end-to-end anastomosis model
Weston, M.W., Rhee, K.,
Tárbeli
J
.
M
...............................................................................657
Rheological Studies
The effect of blood viscoelasticity on pulsatile flow in straight tubes
Sharp,
M
..........................................................................................................................663
Structural dynamics of red blood cell aggregates under flow
Chen, S.,
Barshteinß.,
Gavish,
В.,
Yedgar,
S
...................................................................681
Model fluids for blood, rheological and shear induced damage behavior
of polymer solutions
Lerche,
D.,
Koch,
В.,
Pohl,
M., Vlastos, G., Affled,
К
......................................................682
Other methods to determine the viscosity of blood
Silber, G.R.......................................................................................................................683
Microstructure
of viscous aqueous solutions
Barshtein, G., Almagor,
Α.,
Yedgar, S., Gavish,
В
............................................................691
Simulation of non-Newtonian blood flow in human fetal branches with complex
geometry
Hellevik,
LA., Irgens, F., Kiserud.
T., Ytrehus. T.,
Eik-Nes,H
.........................................692
Influence of non-Newtonian blood properties on numerical flow simulation
at mechanical heart valves
prostheses
Eilers,
R..,
Ritter, Chr., Reul, H., Rau,
G
..........................................................................693
Influence
of blood rheology on cancer therapy
Shulman, Z.P., Makhanek, A. A
........................................................................................701
Arterial
Wall
A model for blood flow through a tapered tube with mild stenosis
Tandon,
PN.,
Rana,
U.V.
S
................................................................................................703
Models
of arterial permeability dynamics
Friedman, M.H., Henderson, J.M., Fry
DZ......................................................................717
Wave propagation of blood velocity and vessel diameter influence of the wall
rheology
Rogova
J., Bensalah,
Α.,
Flaud P., Oddou,
С
...................................................................726
Analysis of the forward and backward running waves in arteries: the role of nonlinear
wall elasticity
Stergiopulos, N., Pythoud,
F., Meister,
J.-J.
.....................................................................727
Blood pressure and mechanical properties of arterial wall in aortic dissection
He,
СМ.,
Roach,
M
Л.....................................................................................................
733
|
any_adam_object | 1 |
author_GND | (DE-588)108692086 |
building | Verbundindex |
bvnumber | BV009780717 |
classification_rvk | WW 8200 |
classification_tum | MTA 490f MED 410f |
ctrlnum | (OCoLC)231625295 (DE-599)BVBBV009780717 |
discipline | Physik Biologie Medizin |
edition | Als Ms. gedr. |
format | Conference Proceeding Book |
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genre | (DE-588)1071861417 Konferenzschrift 1994 München gnd-content |
genre_facet | Konferenzschrift 1994 München |
id | DE-604.BV009780717 |
illustrated | Illustrated |
indexdate | 2024-07-09T17:40:47Z |
institution | BVB |
institution_GND | (DE-588)2138603-1 |
isbn | 3183107171 |
language | Undetermined |
oai_aleph_id | oai:aleph.bib-bvb.de:BVB01-006472031 |
oclc_num | 231625295 |
open_access_boolean | |
owner | DE-29T DE-M347 DE-12 DE-91G DE-BY-TUM DE-210 |
owner_facet | DE-29T DE-M347 DE-12 DE-91G DE-BY-TUM DE-210 |
physical | X, 741 S. Ill., graph. Darst. |
publishDate | 1994 |
publishDateSearch | 1994 |
publishDateSort | 1994 |
publisher | VDI-Verl. |
record_format | marc |
series2 | Fortschritt-Berichte / VDI : Reihe 17, Biotechnik |
spelling | Biofluid mechanics proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany Dieter Liepsch (ed.) Als Ms. gedr. Düsseldorf VDI-Verl. 1994 X, 741 S. Ill., graph. Darst. txt rdacontent n rdamedia nc rdacarrier Fortschritt-Berichte / VDI : Reihe 17, Biotechnik 107 Literaturangaben Biofluidmechanik (DE-588)4203925-3 gnd rswk-swf Kardiovaskuläre Krankheit (DE-588)4024666-8 gnd rswk-swf Blutkreislauf (DE-588)4134345-1 gnd rswk-swf Kardiovaskuläres System (DE-588)4024665-6 gnd rswk-swf Hämodynamik (DE-588)4022810-1 gnd rswk-swf (DE-588)1071861417 Konferenzschrift 1994 München gnd-content Kardiovaskuläres System (DE-588)4024665-6 s Hämodynamik (DE-588)4022810-1 s DE-604 Kardiovaskuläre Krankheit (DE-588)4024666-8 s Biofluidmechanik (DE-588)4203925-3 s Blutkreislauf (DE-588)4134345-1 s Liepsch, Dieter 1940- Sonstige (DE-588)108692086 oth International Symposium on Biofluid Mechanics and Biorheology 3 1994 München Sonstige (DE-588)2138603-1 oth VDI Fortschritt-Berichte Reihe 17, Biotechnik ; 107 (DE-604)BV000903783 107 Digitalisierung TU Muenchen application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=006472031&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis |
spellingShingle | Biofluid mechanics proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany Biofluidmechanik (DE-588)4203925-3 gnd Kardiovaskuläre Krankheit (DE-588)4024666-8 gnd Blutkreislauf (DE-588)4134345-1 gnd Kardiovaskuläres System (DE-588)4024665-6 gnd Hämodynamik (DE-588)4022810-1 gnd |
subject_GND | (DE-588)4203925-3 (DE-588)4024666-8 (DE-588)4134345-1 (DE-588)4024665-6 (DE-588)4022810-1 (DE-588)1071861417 |
title | Biofluid mechanics proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany |
title_auth | Biofluid mechanics proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany |
title_exact_search | Biofluid mechanics proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany |
title_full | Biofluid mechanics proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany Dieter Liepsch (ed.) |
title_fullStr | Biofluid mechanics proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany Dieter Liepsch (ed.) |
title_full_unstemmed | Biofluid mechanics proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany Dieter Liepsch (ed.) |
title_short | Biofluid mechanics |
title_sort | biofluid mechanics proceedings of the 3rd international symposium july 16 19 1994 munich germany |
title_sub | proceedings of the 3rd International Symposium, July 16 - 19 1994, Munich, Germany |
topic | Biofluidmechanik (DE-588)4203925-3 gnd Kardiovaskuläre Krankheit (DE-588)4024666-8 gnd Blutkreislauf (DE-588)4134345-1 gnd Kardiovaskuläres System (DE-588)4024665-6 gnd Hämodynamik (DE-588)4022810-1 gnd |
topic_facet | Biofluidmechanik Kardiovaskuläre Krankheit Blutkreislauf Kardiovaskuläres System Hämodynamik Konferenzschrift 1994 München |
url | http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=006472031&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
volume_link | (DE-604)BV000903783 |
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