The now widespread use of non‐destructive X‐ray computed tomography (CT) and micro‐
CT (µCT) has greatly augmented our ability to comprehensively detail and quantify the …

Background Comparative, functional, and developmental studies of animal morphology
require accurate visualization of three-dimensional structures, but few widely applicable …

Morphologists have historically had to rely on destructive procedures to visualize the three‐
dimensional (3‐D) anatomy of animals. More recently, however, non‐destructive techniques …

Advancements in imaging techniques have drastically improved our ability to visualize,
study, and digitally share complex, often minute, anatomical relationships. The recent …

Understanding developmental processes requires accurate visualization and
parameterization of three‐dimensional embryos. Tomographic imaging methods offer …

Background Given the need for descriptive and increasingly mechanistic morphological
analyses, contrast‐enhanced microcomputed tomography (microCT) represents perhaps the …

In this work, we report the use of iodine-contrast microCT to perform high-throughput 3D
morphological analysis of mouse embryos and neonates between embryonic day 8.5 to …

Micro Computed Tomography (micro-CT) was suggested in biomedical research to
investigate tissues and small animals. Its use to characterize bone structures, vessels (eg …

Many clinically relevant congenital malformations arise during mid to late embryonic stages.
This period is challenging to image quantitatively in live embryos, necessitating the use of …

X-ray microtomography (microCT) is a highly versatile imaging method, and with appropriate
contrast stains and sample mounting, it can produce high-quality images of embryos at a …