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  5. An inverse ,model approach for estimating constitutive laws from dynamic planar deformations of Bio-Filaments
 
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An inverse ,model approach for estimating constitutive laws from dynamic planar deformations of Bio-Filaments

Source
Asian Conference on Mechanics of Functional Materials
Date Issued
2012-12-20
Author(s)
Rajiv, Abhijit
Palanthandalam-Madapusi, Harish
Abstract
Understanding the structural deformations of DNA on long length scales is crucial for engineering DNA molecules to perform a desired biological activity. Thus DNA mechanics simulations based on considering DNA as a Kirchhoffs elastic rod, have been a widely used tool in genetic engineering. But one of the major drawbacks of such simulations is the lack of knowledge of the constitutive law and unavailability of a proper technique to estimate the constitutive law which greatly affects the simulation results. In this paper, we develop a two dimensional inverse dynamic model of DNA which can be then used with experimental data to numerically estimate the constitutive law. The method accounts for non-linearities in the constitutive law and can also be applied to other bio-filaments and micro-tubules.
URI
https://d8.irins.org/handle/IITG2025/31161
Subjects
Bio-filament dynamics
Constitutive law
DNA
Rod model
Inverse modelling
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