Structural damage identification is the key problem of structural health monitoring (SHM),
which has been widely used in many fields. Traditional damage detection methods usually …

In recent years, structural health monitoring (SHM) has been revolutionized with the advent
of the inverse finite element method (iFEM), which is a superior sensing technology based …

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 …

For the static loading test in the aerospace field, conventional strain field reconstruction
based on finite element analysis (FE-SFRM) is difficult to meet the accuracy requirements of …

The inverse problem of reconstructing structural deformations based on measured strain
data, known as shape sensing, is addressed in this numerical study for a cantilevered plate …

This paper reports the first investigation of the inverse finite element method (iFEM) coupled
with the genetic algorithm (GA) to optimize sensor placement models of plate/shell structures …

This study presents the Particle Inverse Method (PIM), a novel structural health monitoring
technique for real-time, full-field monitoring of deformations and damages/cracks in …

The inverse finite element method (IFEM) is currently one of the most studied methods in the
field of shape sensing, in other words, the reconstruction of the displacement field of a …

The inverse finite element method (iFEM) is a viable and well-known shape-sensing method
developed for continuous real-time monitoring of engineering structures by using only strain …

Shape sensing is critically important throughout the lifecycle of composite shell structures,
including the design, manufacturing, service, retirement, and reuse phases. In the service …