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Biomechanical Study and Analysis for Cardiovascular/Skeletal Materials and Devices

Biomedical materials are a promising solution to overcoming tissue and organ failure in the cardiovascular and skeletal systems. In recent decades, there has been incredible progress made in regard to the repair, remodelling, and regeneration of tissues such as vasculature, heart valves, joint, cart...

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Gardado en:
Formato: Online
Idioma:inglés
Publicado: MDPI - Multidisciplinary Digital Publishing Institute 2024
Subjects:
mineralized collagen
microstructure
physical characterization
chemical characterization
coronary angioscopy
flush conditions
CFD
two-phase flow
dextran injection
flow chamber
endothelial cells
coculture techniques
microfluidics
lab-on-a-chip
aspirin
anti-inflammation
amorphous calcium phosphate composite scaffold
dental pulp-capping material
dental pulp stem cell
bone regeneration
hydrogels
mechanical properties
polyvinyl alcohol
tannic acid
finite element updating approach
arterial material properties
in vivo
material parameters estimation
medical degradation
porous zinc
protein foaming
elasticity modulus
compressive strength
biodegradable vascular stents
continuum damage mechanics
finite element method
non-uniform degradation
Zinc-based biodegradable materials
orthopedic implant
biodegradability
mechanical property
biocompatibility
interstitial fluid (ISF)
microflow
perivascular and adventitial clearance
neurovascular bundles
accompanying vein
accompanying artery
kinematic law
nitinol
polydioxanone
self-expanding occluder
braided wire occluder
finite element analysis (FEA)
mechanical performance
diabetes mellitus erythrocyte
retinal vessel
fluid–structure interaction
lingering time
coronary
vulnerable plaque
coronary plaque models
multilayer vessel geometry
hemodynamic
geometric features
side holes
catheter
shear stress
thyroid
biomechanics
constitutive model
hyperelasticity
3D printing
silicone phantom
CT scanning
aortic dissection
interlayer adhesion damage
cellular reprogramming
cell transdifferentiation
direct cellular lineage-conversion
tissue engineered vascular grafts
vascular regeneration
stem cells
vascular progenitor cells
smooth muscle cells
atherosclerosis
cardiovascular disease
coronary vulnerable plaque
plaque models
fibrous cap thickness
vulnerable plaque model
plaque vulnerability prediction
bone
biomaterial
collagen
mineralization
bone cement
cobalt–chrome alloy
Exeter stem
periprosthetic femoral fractures
polished tapered stem
fluid–structure interaction (FSI)
polymeric heart valves (PHVs)
thickness
strain
stress
angioplasty
balloon dilatation catheter
finite element analysis
bench test
insertion force
balloon pleating simulation
n/a
thema EDItEUR::P Mathematics and Science
thema EDItEUR::P Mathematics and Science::PN Chemistry
thema EDItEUR::P Mathematics and Science::PN Chemistry::PNF Analytical chemistry
Acceso en liña:ONIX_20240906_9783725816699_174
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Summary:Biomedical materials are a promising solution to overcoming tissue and organ failure in the cardiovascular and skeletal systems. In recent decades, there has been incredible progress made in regard to the repair, remodelling, and regeneration of tissues such as vasculature, heart valves, joint, cartilage, cornea, retina, etc. There is a great need for novel therapeutic options in treating numerous cardiovascular/skeletal diseases related to tissue failure. Biomechanical studies and analyses of cardiovascular/skeletal materials and devices are critical areas of examination in regard to creating solution strategies for related clinical concerns. The aim of this Reprint is to demonstrate state-of-the-art biomechanical studies and analyses of cardiovascular/skeletal materials, devices, and their applications. Its scope includes—but is not limited to—fundamental studies of related materials, structures, devices and application issues.

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