Bo Li

The paper uses live-cell imaging to study neural network development in zebrafish, revealing conserved structural dynamics and optimization strategies.

The paper reveals that neural innervation transforms the zebrafish yolk sac from a nutrient reservoir into a functional hub coordinating neural, vascular, and metabolic activities during early development.

This study shows that adult zebrafish benefit from group foraging through coordination and emotional buffering, while larvae do not, highlighting developmental differences in social behavior.

This study identifies the developmental origins of zebrafish schooling behavior and shows it is a collective strategy for adapting to environmental geometry.

This study shows hypoxia accelerates wound healing by altering cell-cell and cell-matrix adhesion dynamics through DSG2 downregulation and ITGB3 biphasic regulation.

This study uses live-cell imaging in zebrafish to reveal the precise orchestration of early neurogenesis, including axon development and functional maturation.

This study shows hypoxia accelerates early tumorigenesis by promoting 3D spheroid fusion through actin dynamics and mechanical balance, while inducing genetic instability via micronuclei and aneuploidy.