E-BUZZ ME Logo
ScienceTechnical Deep Dive

Beyond Stars: JWST Detects 'Black Hole Star' Billions of Times Brighter Than the Sun

Published
Beyond Stars: JWST Detects 'Black Hole Star' Billions of Times Brighter Than the Sun
2 min read278 words

The Gist

The James Webb Space Telescope has uncovered an enigmatic celestial object from the early universe, shining with a luminosity 100 billion times greater than a typical star, potentially a black hole enveloped in a vast stellar-like cocoon.

A Cosmic Anomaly in the Early Universe

The James Webb Space Telescope (JWST) continues to push the boundaries of cosmic discovery, this time peering into the universe's infancy to uncover an object unlike anything seen before. Astronomers have identified a perplexing red entity, just a few hundred million years after the Big Bang, that defies current stellar classifications. Dubbed a “black hole star,” this mysterious object exhibits a brilliance that outshines known stars by an astonishing margin, prompting scientists to rethink the origins of cosmic structures.

This peculiar celestial body is not a star in the conventional sense, yet it mimics a stellar appearance. Its incredible luminosity, calculated to be 100 billion times brighter than a typical star, is the primary clue to its unusual nature. Researchers hypothesize that this isn't a singular, colossal star, but rather a colossal black hole, approximately 100,000 times the mass of our Sun, shrouded within a dense, star-like envelope of hydrogen gas. This hydrogen cocoon is estimated to be roughly the size of our entire solar system, creating a truly unique and powerful cosmic spectacle.

The discovery holds immense significance for understanding the early universe. Such an object, combining the characteristics of a supermassive black hole and a stellar-like envelope, could represent a crucial step in the formation of the first massive black holes. These primordial black holes are thought to have been the seeds for the colossal galactic black holes we observe today. The JWST's ability to detect such faint and distant phenomena is providing unprecedented insights into the conditions and processes that shaped the cosmos during its earliest and most turbulent phases, promising to rewrite chapters in our astrophysics textbooks.

Related Stories

Semantically matched articles, ranked by topic overlap and freshness.

PTSD Therapy Side Effects Rare in Children and Adolescents
Science

PTSD Therapy Side Effects Rare in Children and Adolescents

A recent meta-analysis has found that unwanted side effects of psychotherapy for PTSD in children and adolescents are rare, with less than 0.01% of patients reporting symptom deterioration after treatment. The study suggests that psychological interventions are effective and safe for treating PTSD in young people, with adverse events occurring in only 0.29% of patients.

Black Hole Shreds 'Super Sun' in Energetic Explosion
Science

Black Hole Shreds 'Super Sun' in Energetic Explosion

Astronomers have observed a black hole violently shredding a massive star, creating one of the most energetic stellar explosions ever recorded, with some structure potentially surviving the destruction. The event, known as 'the Whippet,' released an enormous amount of energy and sent a shock wave racing outward at one-fifth the speed of light.

10-Cent Heart Drug Cuts Hospitalizations by 25%
Science

10-Cent Heart Drug Cuts Hospitalizations by 25%

A low-dose of the centuries-old heart drug digoxin has been found to reduce heart-failure hospitalizations by about 25%, according to new research. The drug, which costs less than ten cents a day, could potentially pave the way for its return as a major treatment for heart failure, a serious and growing health problem.

Physicists Discover Hidden Gluon Structure Inside Protons, Challenging Decades-Old Textbook Picture
Science

Physicists Discover Hidden Gluon Structure Inside Protons, Challenging Decades-Old Textbook Picture

Physicists have made a groundbreaking discovery of a hidden gluon structure inside protons, which could rewrite textbooks and challenge the long-standing assumption about baryon number. The findings suggest that gluons play a key role in carrying and conserving baryon number, rather than just the three main quarks inside a proton.

New Way to Help CAR-T Cells Fight Solid Tumors Could Change Cancer Treatment
Science

New Way to Help CAR-T Cells Fight Solid Tumors Could Change Cancer Treatment

Researchers at the USC Viterbi School of Engineering have developed a new approach called SHIFTERS, which uses focused ultrasound to help CAR-T cells recognize and attack tumor cells. This technology has shown promising results in laboratory and animal models, and could potentially revolutionize cancer treatment.

Revolutionary Wearable Patch Automatically Delivers Overdose Aid
Science

Revolutionary Wearable Patch Automatically Delivers Overdose Aid

Researchers at Virginia Tech have developed a wearable microneedle patch that detects fentanyl in the body and automatically releases naloxone to reverse an opioid overdose. This innovative patch, called the iNal patch, has the potential to change how opioid overdoses are treated and save lives.

New Obesity Definitions Reveal Ill Health More Accurately Than Body Mass Index
Science

New Obesity Definitions Reveal Ill Health More Accurately Than Body Mass Index

Researchers from King's College London have developed new definitions of obesity that can more accurately identify individuals with ill health than the traditional body mass index (BMI). The new definitions can help prioritize surgical candidates and plan treatment by distinguishing between clinical and preclinical obesity.

New Approach Unlocks Secrets of Rare Immune Cells in Autoimmune Disease Research
Science

New Approach Unlocks Secrets of Rare Immune Cells in Autoimmune Disease Research

A novel genomic approach developed by researchers at Cincinnati Children's Hospital Medical Center enables the study of rare immune cells, potentially leading to a better understanding of autoimmune disease risk. This breakthrough uses an optimized promoter capture Hi-C method to examine DNA folding and interactions in human ILC3s, overcoming the challenge of studying these rare cells at scale.