Three‐dimensional porous scaffolds play a pivotal role in tissue engineering and
regenerative medicine by functioning as biomimetic substrates to manipulate cellular …

Tissue engineering has evolved with multifaceted research being conducted using
advanced technologies, and it is progressing toward clinical applications. As tissue …

There is a tremendous global threat by the microbes due to their ability to easily migrate and
spread in the environment. Alternatively, resistance mechanisms developed by the microbes …

Adequate vascularisation is key in determining the clinical outcome of stem cells and
engineered tissue in regenerative medicine. Numerous imaging modalities have been …

For a circular scanning geometry in photoacoustic tomography, the axial/radial resolution is
spatially invariant and is not affected by the ultrasound transducer (UST, detector) aperture …

Photoacoustic tomography (PAT), or optoacoustic tomography, has achieved remarkable
progress in the past decade, benefiting from the joint developments in optics, acoustics …

Assembly of carbon nanomaterials into three‐dimensional (3D) architectures is necessary to
harness their unique physiochemical properties for tissue engineering and regenerative …

Several imaging modalities are available for investigation of the morphological, functional,
and molecular features of engineered tissues in small animal models. While research in …

To date, the fields of biomaterials science and tissue engineering have shown great promise
in creating bioartificial tissues and organs for use in a variety of regenerative medicine …

Modern biomedical imaging has revolutionized life science by providing anatomical,
functional, and molecular information of biological species with high spatial resolution, deep …