A mysterious region near the center of the Milky Way known as Sagittarius C holds thousands of newborn stars, huge gas clouds, and glowing plasma filaments, with magnetic fields shaping its structure.
New research using the James Webb Space Telescope reveals that Sagittarius C behaves differently from other star-forming regions, potentially explaining the low star formation rate near the galactic center.
Sagittarius C, with the highest star density and dense gas clouds, is close to the Milky Way's supermassive black hole, showing extreme conditions similar to the young universe.
Surprising findings include thin glowing filaments resembling twisted spaghetti noodles and nonthermal signals indicating magnetic field influence in star formation.
Magnetic fields in Sagittarius C, shaped by the movement of gas around the black hole, trap plasma into rope-like filaments, controlling star formation.
JWST data reveals that even dense parts of Sagittarius C's gas cloud have low plasma beta, showing magnetic pressure dominance and unique shape compared to other star-forming regions.
Sagittarius C's magnetic structure differs from regions like the Orion Nebula, affecting star formation rates by influencing cloud erosion.
Protostars in Sagittarius C emit energy that clears surrounding gas, leading to the end of the cloud's life as a stellar nursery.
This research highlights the importance of magnetic forces in star formation, offering new insights into galactic processes and potential implications for understanding galaxies across the universe.
JWST's observations in extreme galactic regions like Sagittarius C could revolutionize the understanding of star formation under intense conditions and shed light on early universe galaxy formation.