An outstanding mystery in biology is why some species, such as the axolotl, can regenerate
tissues whereas mammals cannot. Here, we demonstrate that rapid activation of protein …

Highlights•The IIS/TORC1 and MEKRE93 pathways coordinately regulate body size by
regulating nymphal growth, molting, and metamorphosis;•Blattodea insects have evolved …

Why only certain species can regenerate their appendages (eg tails and limbs) remains one
of the biggest mysteries of nature. Unlike anuran tadpoles and salamanders, humans and …

Molecular studies of animal regeneration typically focus on conserved genes and signaling
pathways that underlie morphogenesis. To date, a holistic analysis of gene expression …

The highly conserved Notch signaling pathway affects embryonic development,
neurogenesis, homeostasis, tissue repair, immunity, and numerous other essential …

In the pond culture of Chinese mitten crabs, limb autotomy seriously affects the feeding
efficiency, immunity and survival. Therefore, it is crucial to understand the mechanism of limb …

Understanding the remarkable capacity of vertebrates to naturally regenerate injured body
parts has great importance for potential translation into human therapeutic applications. As …

The impact of microbiome in animal physiology is well appreciated, but characterization of
animal-microbe symbiosis in marine environments remains a growing need. This study …

Fibrosis-driven solid organ failure is a major world-wide health burden with few therapeutic
options. Spiny mice (genus: Acomys) are terrestrial mammals that regenerate severe skin …

This study proposes a novel framework for learning the underlying physics of phenomena
with moving boundaries. The proposed approach combines Ensemble SINDy and …