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Scientists Discover Way to Send Information into Black Holes Without Using Energy

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Webb Telescope Uncovers One of the Universe’s First Galaxies

The universe still holds many mysteries about how the first stars and galaxies were born. Now, scientists using the powerful James Webb Space Telescope have made an extraordinary discovery that may help answer one of astronomy’s biggest questions.

Researchers have detected a tiny ancient galaxy called LAP1-B exactly as it appeared around 13 billion years ago — only 800 million years after the Big Bang. This makes it one of the earliest and most primitive galaxies ever observed.

Even more exciting, the galaxy may contain chemical evidence linked to the universe’s very first stars, known as Population III stars. These stars are believed to have changed the young universe forever by creating the first heavy elements and helping galaxies grow.

The discovery gives scientists a rare opportunity to look back in time and study the universe during its earliest stages of formation.

Looking Back in Time With Webb

The James Webb Space Telescope, launched in 2021, was designed to observe the oldest and faintest objects in the universe. Unlike ordinary telescopes, Webb can detect infrared light, allowing it to see galaxies that formed billions of years ago.

Because light takes time to travel through space, astronomers are essentially looking into the past when they observe distant galaxies. In the case of LAP1-B, the light reaching Earth today began its journey about 13 billion years ago.

This means scientists are seeing the galaxy exactly as it existed during the “reionization era,” a period when the first stars and galaxies were beginning to light up the universe after the cosmic dark ages.

The findings were published in the journal Nature by a team led by astronomer Kimihiko Nakajima from Kanazawa University in Japan.

A Tiny Galaxy Hidden in the Deep Universe

LAP1-B is incredibly faint and small. Under normal conditions, it would have been impossible to observe, even with Webb. However, scientists received help from nature itself through a phenomenon called gravitational lensing.

Gravitational lensing happens when a massive cluster of galaxies bends and magnifies the light from objects behind it. In simple terms, the closer galaxy cluster acts like a giant cosmic magnifying glass.

Thanks to this natural effect, the light from LAP1-B was magnified nearly 100 times, allowing Webb to capture details that would otherwise remain invisible.

Without gravitational lensing, this discovery may never have happened.

One of the Most Primitive Galaxies Ever Seen

After observing the galaxy, scientists analyzed its light using a method called spectroscopy. This technique splits light into different wavelengths, similar to how a rainbow forms, revealing important information about a galaxy’s chemical makeup.

The results were remarkable.

Researchers discovered that LAP1-B contains extremely low amounts of heavy elements such as oxygen. In fact, its oxygen abundance is around 240 times lower than that of our sun.

This is important because heavy elements are created inside stars over time. A galaxy with almost no heavy elements suggests it formed very early in cosmic history, before generations of stars had enriched the universe.

In astronomy, galaxies with such low metallicity are considered chemically primitive. LAP1-B now ranks among the most chemically primitive star-forming galaxies ever discovered.

Signs of the Universe’s First Stars

One of the most fascinating aspects of the discovery is the possibility that LAP1-B contains traces of Population III stars.

Population III stars are believed to be the first stars ever formed after the Big Bang. Scientists think these stars were extremely massive, incredibly hot, and made almost entirely of hydrogen and helium because heavier elements did not yet exist.

No one has directly observed these first stars before, making them one of astronomy’s greatest missing pieces.

The Webb observations revealed intense ionizing radiation coming from LAP1-B. This kind of powerful radiation is exactly what scientists expect from Population III stars.

The team also measured an unusually high carbon-to-oxygen ratio inside the galaxy. According to theoretical models, this chemical pattern matches the predicted signature left behind by the explosions of the universe’s first stars.

While scientists cannot yet confirm a direct detection of Population III stars, the evidence strongly suggests that LAP1-B may contain the chemical fingerprints of these ancient cosmic pioneers.

The Role of Dark Matter

The discovery also provides clues about another major mystery of the universe: dark matter.

By studying how gas moves inside LAP1-B, researchers concluded that the galaxy appears to be held together by a large amount of invisible dark matter.

Dark matter cannot be seen directly because it does not emit or reflect light. However, scientists know it exists because its gravity affects galaxies and other cosmic structures.

Today, dark matter is believed to make up most of the universe’s matter, and this discovery suggests it was already shaping galaxies during the universe’s earliest stages.

Understanding how dark matter influenced these first galaxies could help scientists explain how larger galaxies, including the Milky Way, eventually formed.

A Rare Snapshot of Cosmic Evolution

Astronomers describe LAP1-B as a “fossil in the making.” In other words, it may be the ancient ancestor of tiny dwarf galaxies still found near the Milky Way today.

Studying galaxies like this allows researchers to investigate how the first structures in the universe formed, evolved, and survived over billions of years.

The discovery also helps scientists understand the transformation of the universe from a dark, simple environment into the complex cosmos filled with stars, planets, and galaxies that we see today.

Every new Webb observation is expanding humanity’s understanding of cosmic history, and discoveries like LAP1-B show just how powerful the telescope truly is.

Why This Discovery Matters

The discovery of LAP1-B is much more than finding another distant galaxy. It offers scientists a rare opportunity to study the early universe during one of its most important periods.

For decades, astronomers could only theorize about the first stars and galaxies. Now, thanks to the James Webb Space Telescope, those theories are beginning to be tested with real observations.

LAP1-B may represent one of the closest looks humanity has ever had at the dawn of galaxy formation. It provides valuable evidence about how the first stars formed, how galaxies evolved, and how dark matter helped shape the cosmos.

As Webb continues exploring deeper into space, scientists expect even more groundbreaking discoveries in the coming years. Some researchers believe the telescope may eventually detect direct evidence of Population III stars themselves — a milestone that could completely transform our understanding of the universe’s origins.

For now, LAP1-B stands as an incredible cosmic time capsule, preserving clues from a time when the universe was still in its infancy.

References: (1) Kimihiko Nakajima et al, An ultra-faint, chemically primitive galaxy forming in the reionization era, Nature (2026). DOI: 10.1038/s41586-026-10374-1 (2) Alexander Ji, Relics of the first stars spotted in a distant, ultra-faint galaxy, Nature (2026). DOI: 10.1038/d41586-026-01151-1

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