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Astronomers have obtained the closest look yet at a quasar, using NASA’s Hubble Space Telescope to study the enigmatic 3C 273, located 2.5 billion light-years away. This quasar, known as the first ever identified in 1963 by astronomer Maarten Schmidt, continues to intrigue scientists with its immense energy output, surpassing that of the brightest galaxies. The recent observations were detailed in reports, offering new insights into the quasar’s environment and its interaction with its host galaxy.

Unveiling the Quasar’s Intriguing Structure

According to the official blog of NASA, Hubble’s Space Telescope Imaging Spectrograph (STIS) coronagraph enabled researchers to block the quasar’s intense glare, exposing structures around its supermassive black hole. Dr. Bin Ren of the Côte d’Azur Observatory stated in interviews that unusual features, including “blobs of varying sizes” and an “L-shaped filamentary structure,” were identified within 16,000 light-years of the black hole. These findings suggest the possibility of smaller satellite galaxies being drawn into the black hole’s gravitational pull.

Hubble’s imaging capabilities also allowed for a closer look at the quasar’s extragalactic jet—a high-energy beam of material extending 300,000 light-years. Data compared with 22-year-old archival images indicated that the jet’s speed increases as it moves farther from the black hole, providing a deeper understanding of quasar jet dynamics.

Implications for Understanding Quasars

As per reports, these observations mark a significant step in decoding the complexities of quasar morphology and galactic interactions. The detailed images suggest that galactic collisions may be fuelling the quasar’s energy, with debris spiralling into its central black hole. Scientists believe these findings could bridge gaps between small-scale radio and large-scale optical studies of quasars.

Hubble’s findings continue to enhance the understanding of quasars, which were most active roughly 3 billion years after the Big Bang. Future observations with the James Webb Space Telescope are expected to shed additional light on the phenomenon. This research underscores the importance of collaborative international efforts in advancing space exploration and cosmology.

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Early Earth’s Deep Mantle May Have Held More Water Than Previously Believed, Study Finds

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Scientists have discovered that Earth’s deep mantle may have stored an ocean’s worth of water during the planet’s earliest years. New experiments show that bridgmanite, a dominant mantle mineral, can hold much more water under extreme heat, offering fresh insight into how Earth retained water and became habitable.

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Spider-Like Scar on Jupiter’s Moon Europa Could Indicate Subsurface Salty Water

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A spider-like scar on Jupiter’s moon Europa may indicate briny water beneath its icy crust. Researchers suggest impact-driven flows of salty liquid created starburst patterns resembling Earth’s lake stars. Future observations by NASA’s Europa Clipper mission could confirm these features, offering new insights into Europa’s subsurface oceans and potential habit…

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Scientists Study Ancient Interstellar Comet 3I/ATLAS, Seeking Clues to Early Star System Formation

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Comet 3I/ATLAS, a rare interstellar visitor from beyond the solar system, is putting on a striking celestial show as it nears Earth. After passing perihelion in October, the comet brightened nearly tenfold and shifted from red to green due to glowing carbon molecules. Tracked closely by astronomers worldwide, this ancient object offers a unique opportunity to study th…

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