Martha W. Merrow

The paper shows that reduced insulin signaling in C. elegans delays cell divisions more than molting, increasing desynchrony and triggering a compensatory delay in the molting program.

The paper measures developmental stage durations in C. elegans under varied conditions and finds that stages respond differently to environmental factors, supporting a linear progression model.

The paper develops a unified model, dCiRC, to predict circadian entrainment phase by integrating parametric and non-parametric aspects of circadian clock responses to light.

This study investigates how temperature cycles affect circadian rhythms in Neurospora crassa, showing complex dynamics including entrainment, period-doubling, and aperiodic behavior through mathematical modeling.

This study shows prolonged quiescence in C. elegans L1 larvae delays cell division and is regulated by insulin signaling, with maternal age affecting recovery variability.

PREMONition predicts circadian clock-regulated molecular networks by integrating functional relationships across species, validated in yeast with gene expression and light sensitivity data.