Despite being such a tiny earth dweller, the roundworm species Caenorhabditis elegans (C. elegans) has become one of the biggest workhorses in the lab for biological researchers. Due in part to the organism’s transparent skin and compact size — just about the size of a comma at 1 mm in length — it’s the only animal to have successfully had a complete mapping of its connectome, or its neural circuitry comprised of 302 neurons and their 7,000 synaptic connections. 

Exploring remote, exotic locations is a long-standing tradition among college students. For applied physics major Samantha Lomuscio ’20, that destination during her senior year has been Jupiter, nearly 390 million miles away.

Working with astrophysicists at the American Museum of Natural History (AMNH), where she began conducting high-energy astrophysics research last summer, her goal has been to detect the solar system’s largest planet in a way that has never been done successfully — through gamma-ray emissions.

The COVID-19 pandemic continues upending life for countless people around the world, threatening public health while disrupting everything from basic home and work routines, to air travel and financial markets. But what has the global slowdown meant for the environment and sustainable living, and what could it mean if some of the radical changes in our everyday lifestyles and consumption habits persisted long-term?

Plenty of fictional works like Mary Shelly’s Frankenstein have explored the idea of swapping out a brain from one individual and transferring it into a completely different body. However, a team of biologists and engineers has now used a variation of the sci-fi concept, via computer simulation, to explore a core brain-body question.