Assessing plaque biomechanics by optical coherence tomography highlights the importance of the disrupting effects of plaque stress, bringing stress concentrations as the prime movers of plaque rupture back into clinical practice.

The rules of biomechanics consistently influence the tempo (rate) and mode (pattern) of evolution across four-bar linkage systems in animals.

The method presented here allows researchers to retrieve accurate and reproducible biomechanical properties of mouse cartilage.

MotorNet is a Python toolbox for training artificial neural networks to control arbitrarily complex, differentiable, and biomechanically realistic musculo-skeletal effectors on user-defined sensorimotor tasks.

A new optical approach reveals dynamics of ground reaction forces in Drosophila larvae and opens new avenues for studying the biomechanics of movement in small animals.

Morphologic, molecular, biomechanical and computational analyses show that the specialized extracellular matrix architecture of the umbilical artery contributes to its rapid closure at birth and regulates smooth muscle cell differentiation.

Adult Scleraxis-lineage cells are not required for successful tendon healing but are required for maintenance of tendon homeostasis.

An integrated landscape framework shows how the coordinated changes in vocal apparatus, muscles, nervous system, and social interaction together influence the trajectory of vocal development.

Emergence of hematopoietic stem cells from an aortic component is a unique phenomenon of cell extrusion, with no equivalent in cell biology, and which is adapted to environmental constraints exerted by endothelial cells and hemodynamics forces.

Daily administration of the farnesyltransferase inhibitor lonafarnib decreases central artery stiffness, increases distal artery vasoactivity, and improves left ventricular function consistent with increased survival in a mouse model of Hutchinson-Gilford progeria syndrome.