The cellular helical structure is well known for its crucial role in development and disease.
Nevertheless, the underlying mechanism governing this phenomenon remains largely …

Accumulating evidence strongly suggests that cell chirality plays a pivotal role in driving left-
right (LR) symmetry breaking, a widespread phenomenon in living organisms. Whole …

The vertex model is widely used to simulate the mechanical properties of confluent epithelia
and other multicellular tissues. This inherently discrete framework allows a Cauchy stress to …

Coordinated cell movement is a cardinal feature in tissue organization that highlights the
importance of cells working together as a collective unit. Disruptions to this synchronization …

Internal organs such as the heart demonstrate apparent left–right (LR) asymmetric
morphology and positioning. Cellular chirality and associated LR biased mechanical …

Collective cellular behavior plays a crucial role in various biological processes, ranging from
developmental morphogenesis to pathological processes such as cancer metastasis. Our …

Understanding how migrating cells can establish both dynamic structures and coherent
dynamics may provide mechanistic insights to study how living systems acquire complex …

Cellular monolayers display various degrees of coordinated motion ranging from the small
scale of just a few cells to large multi-cellular scales. This collective migration carries …

The chirality of tissues and organs is essential for their function and development. Tissue-
level chirality derives from the chirality of individual cells that comprise the tissue, and …

Accumulating evidence strongly suggests that cell chirality plays a pivotal role in driving left-
right (LR) symmetry breaking, a widespread phenomenon in living organisms. Whole …