Asteroid grains shed light on the outer solar system’s origins
A weak magnetic field likely pulled matter inward to form the outer planetary bodies, from Jupiter to Neptune.
A weak magnetic field likely pulled matter inward to form the outer planetary bodies, from Jupiter to Neptune.
A new study shows Mars’ early thick atmosphere could be locked up in the planet’s clay surface.
“All the Rocks We Love” is a new picture book by MIT Professor Taylor Perron and Lisa Varchol Perron.
MIT researchers find wave activity on Saturn’s largest moon may be strong enough to erode the coastlines of lakes and seas.
The results suggest that climate may influence seismic activity.
The 3.7 billion-year-old rocks may extend the magnetic field’s age by 200 million years.
Iwnetim Abate aims to stimulate natural hydrogen production underground, potentially unearthing a new path to a cheap, carbon-free energy source.
The “oriented” samples, the first of their kind from any planet, could shed light on Mars’ ancient magnetic field.
PhD student Fatima Husain investigates the co-evolution of life and Earth and works to communicate science to the public.
Geophysicist William Frank discusses how a recent earthquake in Japan relates to an earthquake swarm in the region.
An accordion-textured clay called smectite efficiently traps organic carbon and could help buffer global warming over millions of years.
MIT scientists find the sounds beneath our feet are fingerprints of rock stability.
The rich soil holds thousands of tons of carbon, sequestered over centuries by indigenous practices, a new study suggests.
A new technique uses remote images to gauge the strength of ancient and active rivers beyond Earth.
The new findings could explain biodiversity hotspots in tectonically quiet regions.