Optical coherence elastography (OCE), as the use of OCT to perform elastography has
come to be known, began in 1998, around ten years after the rest of the field of elastography …

Optical coherence elastography (OCE) represents the frontier of optical elasticity imaging
techniques and focuses on the micro‐scale assessment of tissue biomechanics in 3D that is …

Probing the mechanical properties of tissue on the microscale could aid in the identification
of diseased tissues that are inadequately detected using palpation or current clinical …

From the development of x-ray imaging in the late 19th century, the field of medical imaging
developed an impressive array of modalities. These can measure and image a variety of …

Tendons mainly function as load‐bearing tissues in the muscloskeletal system; transmitting
loads from muscle to bone. Tendons are dynamic structures that respond to the magnitude …

From cancer diagnosis to detailed characterization of arterial wall biomechanics, the elastic
property of tissues is widely studied as an early sign of disease onset. The fibrous structural …

Optical coherence elastography (OCE) is an emerging method to image the mechanical
properties of tissue in 3D, with spatial resolution approaching the micrometer-scale. By …

In compression optical coherence elastography (OCE), deformation is quantified as the local
strain at each pixel in the OCT field-of-view. A range of strain estimation methods have been …

Surgical treatment of breast cancer aims to identify and remove all malignant tissue.
Intraoperative assessment of tumor margins is, however, not exact; thus, re‐excision is …

Polarization-sensitive optical coherence elastography (PS-OCE) is developed for improved
tissue discrimination. It integrates Jones matrix-based PS-optical coherence tomography …