Constarium
← Search

Table · dataset · 2026

Data Sheet 1_A Gyroid TPMS-based machine learning framework for rapid prediction of cancellous bone mechanical properties.zip

Listed in figshare

Introduction<p>High-fidelity finite-element analysis of cancellous bone is computationally expensive, particularly when large parameter spaces must be explored.

Description

This study developed a rapid surrogate-modeling framework integrating parametric Gyroid modeling, finite-element analysis, and machine learning to predict the apparent mechanical properties of cancellous-bone models.</p>Methods<p>Trabecular tissue Young’s modulus (E<sub>t</sub>), tissue failure strain (ε<sub>t</sub>), bone volume fraction (BV/TV), and degree of anisotropy (DA) were used as inputs.

A database of 200 parameter combinations was generated using Latin hypercube sampling, with apparent Young’s modulus (E<sub>c</sub>) and failure stress (σ<sub>c</sub>) obtained from finite-element simulations as separate outputs. Multiple linear regression, quadratic polynomial regression, support vector regression, Kriging, and a backpropagation neural network were evaluated using nested five-fold cross-validation.</p>Results<p>The finite-element model reproduced published uniaxial compression responses.

Read the rest (1 more)

BPNN achieved the best prediction of E<sub>c</sub> (R<sub>2</sub> = 0.9993 ± 0.0003, NRMSE = 0.0256 ± 0.0027, MAPE = 1.68 ± 0.38%), whereas SVR performed best for σ<sub>c</sub> (R<sub>2</sub> = 0.9987 ± 0.0004, NRMSE = 0.0352 ± 0.0030, MAPE = 2.23 ± 0.45%). Response-surface analysis showed that E<sub>t</sub> and BV/TV primarily governed apparent stiffness, while failure stress was additionally sensitive to ε<sub>t</sub>.</p>Discussion<p>The proposed framework provides an accurate and computationally efficient approach for rapid prediction, parameter screening, response-surface analysis, and structural design exploration within the investigated Gyroid model space.</p>

Links

Where it is published

Catalogue records · 1

Topics

Provenance · 1 source records, 17 field assertions
SourceKeyLast seenRaw
figshareoai:figshare.com:article/3377198210 d agoJSON v1
FieldAssertionExtractorEvidence
access_levelsource · figshare comconnector:figshare_com@1.0.0
concepts[field].anzsrc:group:4611mapping · figshare comvocabulary-mapper@1.0.0keywords['machine learning']
concepts[field].local:field:astronomymapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:chemistrymapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:computer-science-aimapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:earth-environmentalmapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:economics-financemapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:engineeringmapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:humanitiesmapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:life-sciencesmapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:medicine-healthmapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:ocean-atmosphericmapping · figshare comconnector:figshare_com@1.0.0
concepts[field].local:field:social-sciencemapping · figshare comconnector:figshare_com@1.0.0
descriptionsource · figshare comconnector:figshare_com@1.0.0/metadata/dc/description
licensesource · figshare comconnector:figshare_com@1.0.0/metadata/dc/rights
publication_datesource · figshare comconnector:figshare_com@1.0.0
titlesource · figshare comconnector:figshare_com@1.0.0/metadata/dc/title