NASA’s Webb Telescope Discovers the Most Distant Active Supermassive Black Hole

NASA’s groundbreaking findings with the Webb telescope: the most distant active supermassive black hole and its implications for the early universe.

The exploration of our universe has always captivated scientists and astronomers, and recent advancements in technology have allowed us to delve deeper into the mysteries of space. In a groundbreaking discovery, NASA researchers have utilized the James Webb Space Telescope to identify the most distant supermassive black hole ever observed. Situated within the galaxy CEERS 1019, this black hole came into existence approximately 570 million years after the Big Bang, which marked the birth of our universe. The remarkable findings from the Webb telescope’s Cosmic Evolution Early Release Science (CEERS) Survey have been published in The Astrophysical Journal Letters.

Unveiling the Secrets of CEERS 1019

The CEERS program employs the James Webb Space Telescope to capture near- and mid-infrared imagery of the early universe using various wavelengths of light. During this study, researchers made note of CEERS 1019’s relatively modest size, estimated to be around 9 million solar masses. This mass is comparable to the black hole residing at the center of our own Milky Way galaxy, which is approximately 4.6 million times the mass of our Sun. Interestingly, CEERS 1019 is also less luminous compared to previously discovered supermassive black holes.

A Relic from the Early Universe

One of the most fascinating aspects of CEERS 1019 is its age. Unlike most black holes, which formed later in the universe’s timeline, CEERS 1019 emerged shortly after the birth of the cosmos. Rebecca Larson, leading the discovery at the University of Texas at Austin, states that studying the data from this black hole is not vastly different from observing those found in galaxies closer to us. The extensive spectral lines present in the observations provide a wealth of information. Researchers have been able to distinguish emissions from the black hole itself and its host galaxy, as well as determine the amount of gas being consumed by the black hole and the rate of star formation within its galaxy.

A Black Hole with an Insatiable Appetite

The team discovered that CEERS 1019 is actively consuming as much gas as it can, while simultaneously generating new stars. Visually, it appears as three distinct bright clumps, rather than a single circular disk. Jeyhan Kartaltepe, a member of the CEERS team from the Rochester Institute of Technology, commented on the surprising level of structure visible at such vast distances. Kartaltepe suggests that a galaxy merger may be fueling the heightened activity in the black hole, leading to increased star formation within the galaxy.

Unraveling the Mysteries of the Early Universe

Utilizing the capabilities of the James Webb Space Telescope, researchers also made the groundbreaking discovery of two previously unknown black holes. The first black hole resides within the galaxy CEERS 2782 and formed a mere 1.1 billion years after the Big Bang. The second black hole, found in galaxy CEERS 746, existed approximately 1 billion years after the birth of the universe. Similar to the black hole in CEERS 1019, these newly discovered black holes are also considered “light weights,” with masses measuring around 10 million times that of the Sun. Prior to the Webb telescope, these three black holes remained undetectable due to their faintness.

Shedding Light on the Early Universe

Dale Kocevski, a team member from Colby College in Maine, expressed the significance of this discovery. Lower mass black holes were already suspected to exist in the early universe, but it was the James Webb Space Telescope that provided the first clear observations of these elusive celestial objects. Kocevski suggests that lower mass black holes may be prevalent throughout the cosmos, waiting to be uncovered by future investigations.

In addition to the black hole discoveries, the team behind the CEERS Survey used the Webb telescope to identify 11 galaxies that were present when the universe was only 470 to 675 million years old. These galaxies are undergoing rapid star formation, yet they lack the chemical enrichment observed in galaxies closer to us. The data collected by Webb on these early galaxies has the potential to reshape our understanding of star formation and the evolution of galaxies.

A New Era of Exploration

Steven Finkelsten, the University of Texas at Austin researcher leading the CEERS Survey, emphasizes the transformative power of the James Webb Space Telescope. Until now, our knowledge of objects in the early universe has largely relied on theoretical models. However, with the Webb telescope, we not only have the ability to observe black holes and galaxies at extreme distances, but we can also accurately measure their properties. This monumental achievement signifies a significant step forward in our understanding of the universe and our place within it.


The discovery of the most distant active supermassive black hole by NASA’s James Webb Space Telescope marks an extraordinary milestone in our exploration of the universe. CEERS 1019, residing within its galaxy, offers valuable insights into the early stages of the cosmos. Alongside this groundbreaking find, two previously unknown black holes were also unveiled, shedding light on the prevalence of lower mass black holes in the early universe. The Webb telescope’s observations of early galaxies provide an opportunity to redefine our understanding of star formation and galaxy evolution. As we embark on this new era of space exploration, the James Webb Space Telescope promises to unravel countless cosmic mysteries.


How did NASA discover the most distant supermassive black hole?

NASA utilized the powerful James Webb Space Telescope to identify the most distant supermassive black hole ever observed.

What is the significance of CEERS 1019’s size?

CEERS 1019 has a relatively small mass, similar to the black hole at the center of our Milky Way galaxy.

Is CEERS 1019 brighter than other massive black holes?

No, CEERS 1019 is less bright compared to previously detected massive black holes.

How does CEERS 1019 differ from other black holes in terms of age?

CEERS 1019 formed shortly after the universe began, making it much older than most black holes.

What other discoveries were made by the CEERS Survey?

The CEERS Survey also detected two previously unknown black holes and identified 11 galaxies from the early universe.

Check Also

Illustration of different nose sizes and shapes , Genetic factors influencing nose size, Cultural diversity and perceptions of big noses, Smiling person embracing their unique big nose, Comparison of nose sizes and their significance, Illustration of nasal structure and airflow, Myths and misconceptions about big noses, Portrait of confident individual with a big nose, Beautiful diversity of noses around the world, Scientific diagram depicting nasal bone and cartilage structure,

Why Some People Have Big Noses: Unveiling the Scientific Reasons

Discover the fascinating science behind big noses and explore their genetic factors. Learn about myths, …

Leave a Reply

Your email address will not be published. Required fields are marked *