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(Reference retrieved automatically from Web of Science through information on FAPESP grant and its corresponding number as mentioned in the publication by the authors.)

Patient-Specific Bone Multiscale Modelling, Fracture Simulation and Risk Analysis-A Survey

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Author(s):
Alcantara, Amadeus C. S. [1] ; Assis, Israel [2] ; Prada, Daniel [1] ; Mehle, Konrad [3] ; Schwan, Stefan [4] ; Costa-Paiva, Lucia [5] ; Skaf, Munir S. [6, 7] ; Wrobel, Luiz C. [8, 9] ; Sollero, Paulo [1]
Total Authors: 9
Affiliation:
[1] Univ Campinas UNICAMP, Sch Mech Engn, Dept Computat Mech, BR-13083860 Campinas, SP - Brazil
[2] Univ Campinas UNICAMP, Sch Mech Engn, Dept Integrated Syst, BR-13083860 Campinas, SP - Brazil
[3] Univ Appl Sci Merseburg, Dept Engn & Nat Sci, D-06217 Merseburg - Germany
[4] Fraunhofer Inst Microstruct Mat & Syst IMWS, D-06120 Halle - Germany
[5] Univ Campinas UNICAMP, Sch Med Sci, Dept Obstet & Gynecol, BR-13083887 Campinas, SP - Brazil
[6] Univ Campinas UNICAMP, Inst Chem, BR-13083860 Campinas, SP - Brazil
[7] Univ Campinas UNICAMP, Ctr Comp Engn & Sci, BR-13083860 Campinas, SP - Brazil
[8] Brunel Univ London, Inst Mat & Mfg, Uxbridge UB8 3PH, Middx - England
[9] Pontifical Catholic Univ Rio de Janeiro, Dept Civil & Environm Engn, BR-22451900 Rio De Janeiro - Brazil
Total Affiliations: 9
Document type: Review article
Source: MATERIALS; v. 13, n. 1 JAN 1 2020.
Web of Science Citations: 2
Abstract

This paper provides a starting point for researchers and practitioners from biology, medicine, physics and engineering who can benefit from an up-to-date literature survey on patient-specific bone fracture modelling, simulation and risk analysis. This survey hints at a framework for devising realistic patient-specific bone fracture simulations. This paper has 18 sections: Section 1 presents the main interested parties; Section 2 explains the organzation of the text; Section 3 motivates further work on patient-specific bone fracture simulation; Section 4 motivates this survey; Section 5 concerns the collection of bibliographical references; Section 6 motivates the physico-mathematical approach to bone fracture; Section 7 presents the modelling of bone as a continuum; Section 8 categorizes the surveyed literature into a continuum mechanics framework; Section 9 concerns the computational modelling of bone geometry; Section 10 concerns the estimation of bone mechanical properties; Section 11 concerns the selection of boundary conditions representative of bone trauma; Section 12 concerns bone fracture simulation; Section 13 presents the multiscale structure of bone; Section 14 concerns the multiscale mathematical modelling of bone; Section 15 concerns the experimental validation of bone fracture simulations; Section 16 concerns bone fracture risk assessment. Lastly, glossaries for symbols, acronyms, and physico-mathematical terms are provided. (AU)

FAPESP's process: 13/08293-7 - CCES - Center for Computational Engineering and Sciences
Grantee:Munir Salomao Skaf
Support Opportunities: Research Grants - Research, Innovation and Dissemination Centers - RIDC
FAPESP's process: 18/18503-2 - Osteoporosis diagnosis through multiscale modeling of bone fracture using the boundary element method and molecular dynamics
Grantee:Amadeus Cavalcanti Salvador de Alcântara
Support Opportunities: Scholarships in Brazil - Doctorate (Direct)