Scientists built a microfluidic lab-on-a-chip device that accelerates compound screens and phenotype analyses in C. elegans models of reproductive aging.
Automating In Vivo Screens and Challenging Dogma
Automating In Vivo Screens and Challenging Dogma
Scientists built a microfluidic lab-on-a-chip device that accelerates compound screens and phenotype analyses in C. elegans models of reproductive aging.
Scientists built a microfluidic lab-on-a-chip device that accelerates compound screens and phenotype analyses in C. elegans models of reproductive aging.
Researchers discovered that chilling worms on ice slows down forgetting, prompting an exploration into the pathway responsible for this cool phenomenon.
Parents’ mutations, even if they’re not inherited by offspring, could affect subsequent generations through changes to epigenetic marks, a study finds.
Alejandra Manjarrez, PhD | May 24, 2022 | 4 min read
Increasing mitochondrial activity in worms by engineering a light-activated proton pump into the organelle’s membrane extends the animals’ lifespan without evidence of health decline, according to a preprint.
The Scientist spoke to Mount Desert Island Biological Laboratory’s Jim Strickland about the institute’s new MDI Bioscience initiative to perform more drug testing and development in nonmammalian models.
Researchers identified a novel mechanism by which chemically induced stress is “remembered” by the mitochondria of worms more than 50 generations after the original trigger.
A controversial idea from the mid-20th century is attracting renewed attention from researchers developing theories for how cognition arises with or without a brain.
Working with bacteriophages and nematodes, the University of California, Berkeley, molecular biologist uncovered a role for genetic switches in early development.
A small RNA in Pseudomonas triggers an avoidance response in C. elegans that can be passed on to the next generation, according to research presented at this week’s meeting of the American Society for Cell Biology.
A single-cell map of C. elegans’s transcriptome during development finds cell lineages that start out genetically different and end up as cells of similar function and genetic profile.