In tissue engineering, non-invasive imaging of biomaterial scaffolds and tissues in living
systems is essential to longitudinal animal studies for assessments without interrupting the …

As the field of tissue engineering advances, it is crucial to develop imaging methods capable
of providing detailed three-dimensional information on tissue structure. X-ray imaging …

Tissues engineered in bioreactor systems have been used clinically to replace damaged
tissues and organs. In addition, these systems are under continued development for many …

Tomographic phase contrast imaging using hard X-rays is instrumental in revealing and
understanding the three-dimensional (3D) anatomic structure of biological tissues. However …

Porous scaffolds based on poly (α-hydroxy-esters) are under investigation in many tissue
engineering applications. A biological response to these materials is driven, in part, by their …

Three dimensional imaging techniques are needed for the evaluation and assessment of
biomaterials used for tissue engineering and drug delivery applications. Hydrogels are a …

When imaging soft tissues with hard X-rays, phase contrast is often preferred over
conventional attenuation contrast due its superior sensitivity. However, it is unclear which of …

Propagation-based X-ray phase-contrast computed tomography (PBI) has already proven its
potential in a great variety of soft-tissue-related applications including lung imaging …

X-ray phase-contrast imaging and tomography make use of the refraction of X-rays by the
sample in image formation. This provides considerable additional information in the image …

Background The evolution of cartilage degeneration is still not fully understood, partly due to
its thinness, low radio-opacity and therefore lack of adequately resolving imaging …