All articles tagged with #ceres
NASA’s Dawn data mark Ahuna Mons on the dwarf planet Ceres as a four-kilometer-tall cryovolcanic dome built from a viscous brine–ice–salt slurry that surfaced and froze, with gravity evidence pointing to a buried source. Its youthful, steep profile and bright mineral streaks suggest recent internal activity within tens to hundreds of millions of years, making it a standout, possibly episodic example of icy volcanism on Ceres.
A 25-year CERES record reveals a unique and persistent east–west albedo symmetry around 27°E, where Eastern and Western Hemispheres reflect nearly identical solar radiation. The symmetry forms a triple balance: high-cloud reflection is stronger in the Eastern Hemisphere, low-cloud reflection dominates in the Western Hemisphere, and ice-free ocean fractions are nearly the same in both hemispheres, collectively maintaining similar reflectivity. Interannual variability of the symmetry tracks ENSO, implying a link to Walker circulation, while climate models (CMIP6) fail to reproduce this feature, highlighting gaps in cloud representation. The finding offers a new constraint for Earth system models and underscores the need for sustained radiation-budget observations amid climate change.
NASA’s Dawn data show Ceres has a complex surface with a gravity anomaly indicating subsurface brines beneath Occator crater, where bright deposits like Cerealia Facula and Vinalia Facula suggest recent cryovolcanic activity. The findings point to a possible past subsurface ocean, a high water content around 25%, and ongoing surface modification from impacts, making a future orbiter/lander sample-return mission plausible to study these features in detail.
As Ceres moves into Taurus on March 15, 2026, the daily love horoscopes urge a long-term, reciprocal approach to romance. Each sign receives personalized guidance to nurture self-care, healing, and stable connections, encouraging patience, quality time, and authentic expressions of love rather than quick wins.
Scientists have discovered that Earth is getting darker overall, with a more pronounced darkening in the Northern Hemisphere, likely due to climate change, aerosol pollution reduction, and natural disasters, challenging the long-held assumption of hemispheric symmetry in Earth's reflectivity.
Astronomers have made several unexpected discoveries while searching for other celestial phenomena, including the discovery of Uranus, Ceres, solar flares, cosmic X-rays, the cosmic microwave background, pulsars, gamma-ray bursts, exoplanets, dark energy, and fast radio bursts, all of which have significantly advanced our understanding of the universe.
New research suggests that billions of years ago, the dwarf planet Ceres may have had the right ingredients and energy sources to support simple microbial life, due to past hydrothermal activity driven by radioactive decay, despite its current icy and cold state.
NASA's Dawn mission revealed that Ceres, the largest object in the Asteroid Belt, may have supported single-celled life 2.5 to 4 billion years ago due to a once-active subsurface water reservoir heated by radioactive decay, although it likely no longer has an internal ocean today.
NASA research suggests that Ceres, the largest object in the asteroid belt, may have supported single-celled life 2.5 to 4 billion years ago due to a once-present subsurface water reservoir heated by radioactive decay, despite being too cold now to sustain liquid water.
NASA's study suggests that Ceres may have once had conditions suitable for microbial life, with a subsurface ocean enriched with chemicals and energy sources, similar to Earth's hydrothermal vents, although it is no longer habitable today.
New NASA research suggests that Ceres, the largest asteroid in the belt, may have had a long-lasting source of chemical energy in its past, potentially supporting microbial life, due to a steady supply of hot, mineral-rich water from its interior, although current conditions are too cold for habitability.
NASA research suggests that Ceres, a dwarf planet in the asteroid belt, may have had a long-standing internal energy source around 2.5 billion years ago, which could have supported microbial life due to the presence of water, organic molecules, and chemical energy, although it is now too cold to be habitable.
Ceres, the largest object in the asteroid belt, is a nearly spherical dwarf planet with complex geology and evidence of a once-frozen ocean, making it a compelling target for future exploration and the search for past life in our solar system.
A new study suggests that collisions in space can produce and preserve carbon on dwarf planets like Ceres, which may hold clues to the origins of life. The research highlights the importance of future sample return missions to analyze organic materials on Ceres, especially in light of its potential subsurface ocean and the challenges posed by shock metamorphism during impacts. Funding and mission planning are critical for advancing this research.
Recent research on the dwarf planet Ceres, based on data from NASA's Dawn mission, has identified 11 new regions rich in organic materials, suggesting the presence of an internal reservoir. This discovery raises the possibility that Ceres could support biological processes, as these materials may have formed within the planet itself. The findings enhance Ceres' significance in planetary science and space exploration, highlighting its potential as a target for future missions and its role in understanding the solar system's history and the potential for life beyond Earth.