Issue 11, 2025

MechanoBioCAD: a generalized semi-automated computational tool for mechanobiological studies

Abstract

Soft micropillar arrays enable detailed studies of cellular mechanotransduction and biomechanics using traditional beam-bending models. However, they often rely on simplified assumptions, leading to significant errors in force estimation. We present MechanoBioCAD (MBC), a finite element method (FEM)-based tool designed specifically for micropillar research and error estimation. Unlike traditional methods, MBC leverages the principle of minimizing total potential energy, avoiding errors associated with beam bending assumptions. MBC automates FEM model generation, analysis, and post-processing, providing accurate force quantification based on deflection input. The tool addresses critical issues such as substrate deformation, interpillar interactions, improper load application heights, and nonlinear effects. Applied to fibroblast cell traction and Caenorhabditis elegans (C. elegans) thrashing cases, MBC recorded 23% and 34% errors in the estimated forces, respectively, compared to traditional methods. As an open-access tool with the Abaqus Student Edition, MBC democratizes rational design, analysis, and error estimation for researchers who are not subject matter experts in FEM.

Graphical abstract: MechanoBioCAD: a generalized semi-automated computational tool for mechanobiological studies

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Article information

Article type
Paper
Submitted
06 Oct 2024
Accepted
28 Feb 2025
First published
07 Mar 2025

Lab Chip, 2025,25, 2632-2643

MechanoBioCAD: a generalized semi-automated computational tool for mechanobiological studies

N. S. Baban, C. J. Stubbs and Y. Song, Lab Chip, 2025, 25, 2632 DOI: 10.1039/D4LC00843J

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