A multiscale optimisation method for bone growth scaffolds based on triply periodic minimal surfaces

A multiscale optimisation method for bone growth scaffolds based on triply periodic minimal surfaces

Tissue engineered bone scaffolds are potential alternatives to bone allografts and autografts. Porous scaffolds based on triply periodic minimal surfaces (TPMS) are good candidates for tissue growth because they offer high surface-to-volume ratio, have tailorable stiffness, and can be easily fabrica...

Full description

Bibliographic Details
Main Authors: Ashcroft, I.A (Author), Lehder, E.F (Author), Maskery, I. (Author), Ruiz-Cantu, L.A (Author), Wildman, R.D (Author)
Format: Article
Language:English
Published: Springer Science and Business Media Deutschland GmbH 2021
Subjects:
3D printers
Additive manufacturing
Article
biological model
Biomechanical Phenomena
biomechanics
Bone
bone allograft
bone defect
bone development
Bone Development
bone graft
bone growth
bone plate
Bone Plates
bone regeneration
Bone scaffold design
Bone scaffolds
cell growth
Cell growth
cell proliferation
Cell proliferation
Cell Proliferation
cell survival
Cells
chemistry
Cytology
equipment design
Femoral Fractures
femur fracture
finite element analysis
fracture fixation
Fracture Fixation
General methodologies
geometry
Growth kinetics
High surface-to-volume ratio
human
human tissue
Humans
Level set method
Minimal surfaces
Models, Biological
Multi-scale modelling
Nutrient delivery
Optimisation method
Optimisation procedures
osteoblast
Osteoblasts
osteolysis
pathology
physiology
pore size
porosity
Porosity
procedures
rigidity
Scaffolds (biology)
Stiffness
Surface Properties
surface property
three dimensional printing
Tissue
tissue engineering
Tissue Engineering
tissue growth
Tissue regeneration
tissue scaffold
Tissue Scaffolds
Tissue-engineered bones
trabecular bone
Triply periodic minimal surfaces
Young modulus
Online Access:View Fulltext in Publisher

Internet

View Fulltext in Publisher

Similar Items