Our work in quantitative elastography reveals the mechanical properties of soft tissues—surpassing the limitations of standard ultrasound and mimicking the clinician’s palpation in a reproducible, physics-driven manner. By applying controlled mechanical or ultrasound impulses, these methods observe how tissues deform or propagate induced waves. The resulting measures of stiffness and elasticity illuminate variations in tissue rigidity, providing insight into pathological changes such as tumor development or fibrosis. Techniques that visually map these mechanical properties create intuitive elastograms, enabling clinicians to detect subtle differences in tissue behavior and structure.
Our research aim to provide noninvasive, reliable assessments of tissue stiffness—facilitating early detection and monitoring of conditions—while offering reproducible, quantitative alternatives to invasive procedures like biopsy.
