NASA's James Webb Telescope discovers distant and active supermassive black hole

NASA's technological marvel, the James Webb Space Telescope, made a mammoth discovery this past week, identifying an active supermassive black hole, the farthest known to date.

Announced by the agency on July 6, the newly discovered black hole is located in the galaxy CEERS 1019, is less massive than previously observed black holes in the early universe.


Formed 570 million years since the Big Bang, the CEERS 1019 galaxy has been providing valuable insights into the origins of our own Milky Way galaxy. Scientists estimate that the black hole also formed approximately around the same time.

Reports say that early universe was home to around 11 galaxies, aging from 470 to 675 million years.

NASA, in the announcement, highlighted similarities between the black hole in CEERS 1019 and the one at the center of the Milky Way. The black hole in CEERS 1019 has a mass approximately 4.6 million times that of the Sun but is not as bright as its counterpart in the Milky Way.

NASA notes that numerous smaller black holes have the potential to engulf galaxies, with this being the first massive black hole discovered by the agency. Till now, they were only theorised about.

The James Webb Telescope not only aids in the discovery of black holes and distant galaxies but also enables precise measurements to validate and refine scientific calculations. By studying the amount of gas consumed by the black hole, researchers can determine the origin of stars within its galaxy.

Astronomer Austin Steven Finkelstein from the University of Texas emphasizes that previous research has primarily been theoretical. However, with the James Webb Telescope, scientists can observe black holes and galaxies at vast distances and accurately measure their sizes.

When observing CEERS 1019 from a distance, it appears as three distinct bright groups of light rather than a single source. This phenomenon is commonly observed when studying distant objects, as explained by Jeyhan Kartaltepe, a member of the CEERS team.

Kartaltepe further explains that the collision of two or more galaxies increases the likelihood of black hole formation, subsequently triggering the creation of more stars.

Seiji Fujimoto from the University of Texas suggests that these findings imply that our understanding of star and galaxy formation and evolution throughout time and space may require revision as new discoveries continue to be made.