Optical fiber sensors have attracted considerable attention for marine environment and
marine structural health monitoring, owing to advantages including resistance to …

Shape sensing, ie, the reconstruction of the displacement field of a structure from some
discrete surface strain measurements, is a fundamental capability for the structural health …

Known as “shape sensing”, real-time reconstruction of a structure's three-dimensional
displacements using a network of in situ strain sensors and measured strains is a vital …

A novel structural health monitoring approach is developed by coupling the inverse finite
element method (iFEM) and peridynamic theory (PD) for real-time shape sensing analysis …

With the increasing popularity of wind energy, offshore wind turbines (OWTs) are currently
experiencing rapid development. The tower is one of the most significant components of the …

Abstract The inverse Finite Element Method (iFEM) is a revolutionary methodology for real-
time reconstruction of full-field structural displacements and stresses in plate and shell …

The inverse finite element method (iFEM) is an innovative framework for dynamic tracking of
full-field structural displacements and stresses in structures that are instrumented with a …

Over the last few years, inverse finite element method (iFEM) is shown to be one of the most
robust and general algorithms for the purpose of shape and stress sensing. This study …

The offshore industry has been using stiffened thin-walled steel cylindrical structures for
decades, particularly as the columns of floating offshore installations. The floating offshore …

Real-time reconstruction of displacement field from a network of discrete strain sensors is
referred to as “shape (deformation) sensing” for which inverse finite element method (iFEM) …