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.
Aboard NASA’s Orion spacecraft, the terminal will beam data over laser links during the first crewed lunar mission since 1972.
MIT Kavli Institute scientists and collaborators will produce a concept study to launch a $1B experiment to investigate the X-ray universe.
The discovery of pyrene derivatives in a distant interstellar cloud may help to reveal how our own solar system formed.
System observed 8,000 light-years away may be the first direct evidence of “gentle” black hole formation.
The quasars appear to have few cosmic neighbors, raising questions about how they first emerged more than 13 billion years ago.
MIT Research Scientist Jason Soderblom describes how the NASA mission will study the geology and composition of the surface of Jupiter’s water-rich moon and assess its astrobiological potential.
The Plasma Science Experiment aboard NASA’s Voyager 2 spacecraft turns off after 47 years and 15 billion miles.
A new study shows Mars’ early thick atmosphere could be locked up in the planet’s clay surface.
EAPS PhD student Jared Bryan found a way to use his research on earthquakes to help understand exoplanet migration.
Watching for changes in the Red Planet’s orbit over time could be new way to detect passing dark matter.
In the universe’s first billion years, this brief and mysterious force could have produced more bright galaxies than theory predicts.
Assistant Professor Richard Teague describes how movement of unstable gas in a protoplanetary disk lends credibility to a secondary theory of planetary formation.
By studying ancient, supermassive black holes called quasars, Dominika Ďurovčíková is illuminating an early moment when galaxies could first be observed.