Newly unsealed audio files from the May 22 UAP release reveal stunning conversations between Apollo astronauts and Mission Control about UFOs in deep space.

Declassified audio files from the historic May 22 UAP release reveal stunning transcripts of NASA's Mercury and Apollo astronauts describing unexplained encounters with anomalous objects in orbit.

'Newly released NASA audio': What Apollo astronauts actually saw in deep space

Astronomers using NASA’s James Webb Space Telescope have uncovered new clues about one of Neptune’s most unusual moons, suggesting that Nereid may be the lone surviving remnant of a violent cosmic disruption that reshaped the outer planet’s moon system billions of years ago. The findings, reported by researchers analysing Webb telescope observations, indicate that Nereid differs sharply from Neptune’s other moons in both composition and behaviour. Scientists believe the moon may preserve evidence from an earlier era of the Solar System before Neptune captured its largest moon, Triton.&nbsp;Discovered in 1949 by Dutch-American astronomer Gerard Kuiper, Nereid is Neptune’s third-largest moon and follows one of the most unusually elongated or eccentric orbits known among planetary satellites. Roughly 350 kilometres (220 miles) wide, the moon travels on an extreme orbital path around the distant planet.&nbsp;ALSO READ: <a href="https://www.wionews.com/world/-green-orbs-discs-and-fireballs-pentagon-releases-second-batch-of-declassified-ufo-files-1779456364072">‘Green orbs, discs and fireballs’: Pentagon releases second batch of declassified UFO files</a>&nbsp;<h2>A moon unlike the others</h2>&nbsp;Researchers say Nereid’s unusual properties have long puzzled astronomers. Unlike Neptune’s inner moons, which appear darker and more uniform, Nereid reflects significantly more sunlight and displays characteristics more commonly associated with icy bodies found in the distant Kuiper Belt. According to the Associated Press, a team led by the California Institute of Technology used NASA’s Webb Space Telescope to study Nereid, the gethered data revealed strong signatures of water ice and carbon dioxide ice on Nereid’s surface. Scientists noted that its composition appears strikingly different from nearby moons, strengthening theories that it may have originated elsewhere.&nbsp;According to researchers, Neptune’s moon system likely underwent massive disruption after Triton, Neptune’s largest moon, was gravitationally captured by the planet billions of years ago. That event may have destabilised or destroyed many of Neptune’s original moons. Scientists now suspect Nereid could be one of the few objects that survived the chaos.&nbsp;The observations show for the first time that Nereid’s peculiar orbit matches ‘the history we might expect from a moon that originally formed close to Neptune and was later pushed outward from the capture of Triton,’ a Carnegie Science planetary astronomer, Scott Sheppard said, according to AP.&nbsp;ALSO READ: <a href="https://www.wionews.com/science/dying-star-glows-like-a-cosmic-crystal-ball-in-stunning-new-telescope-image-1779453783893">Dying star glows like a cosmic crystal ball in stunning new telescope image</a>&nbsp;<h2>Clues to the Solar System’s violent past</h2>&nbsp;Researchers believe studying Nereid could help explain how giant planets evolved during the early formation of the Solar System. The moon’s highly stretched orbit is viewed as possible evidence of past gravitational upheaval linked to Triton’s arrival.The Webb telescope observations also suggest Nereid has remained relatively unchanged over billions of years, potentially preserving material from the outer Solar System’s earliest period.&nbsp;Astronomers say the discovery is important because Neptune remains one of the least explored planets in the Solar System. Only NASA’s Voyager 2 spacecraft has ever flown past the planet, during its historic 1989 mission. Scientists hope future observations of Nereid and Neptune’s wider moon system could provide deeper insight into how planetary collisions, moon capture events and orbital instability shaped the architecture of the modern Solar System.&nbsp;

Nereid, discovered in 1949 by Dutch-American astronomer Gerard Kuiper, is the third-largest moon orbiting Neptune and follows one of the most eccentric orbits of any known planetary satellite.

Astronomers using NASA’s James Webb Space Telescope have uncovered new clues about one of Neptune’s most unusual moons, suggesting that Nereid may be the lone surviving remnant of a violent cosmic disruption that reshaped the outer planet’s moon system billions of years ago. The findings, reported by researchers analysing Webb telescope observations, indicate that Nereid differs sharply from Neptune’s other moons in both composition and behaviour. Scientists believe the moon may preserve evidence from an earlier era of the Solar System before Neptune captured its largest moon, Triton. Discovered in 1949 by Dutch-American astronomer Gerard Kuiper, Nereid is Neptune’s third-largest moon and follows one of the most unusually elongated or eccentric orbits known among planetary satellites. Roughly 350 kilometres (220 miles) wide, the moon travels on an extreme orbital path around the distant planet. ALSO READ: ‘Green orbs, discs and fireballs’: Pentagon releases second batch of declassified UFO files A moon unlike the others Researchers say Nereid’s unusual properties have long puzzled astronomers. Unlike Neptune’s inner moons, which appear darker and more uniform, Nereid reflects significantly more sunlight and displays characteristics more commonly associated with icy bodies found in the distant Kuiper Belt. According to the Associated Press, a team led by the California Institute of Technology used NASA’s Webb Space Telescope to study Nereid, the gethered data revealed strong signatures of water ice and carbon dioxide ice on Nereid’s surface. Scientists noted that its composition appears strikingly different from nearby moons, strengthening theories that it may have originated elsewhere. According to researchers, Neptune’s moon system likely underwent massive disruption after Triton, Neptune’s largest moon, was gravitationally captured by the planet billions of years ago. That event may have destabilised or destroyed many of Neptune’s original moons. Scientists now suspect Nereid could be one of the few objects that survived the chaos. The observations show for the first time that Nereid’s peculiar orbit matches ‘the history we might expect from a moon that originally formed close to Neptune and was later pushed outward from the capture of Triton,’ a Carnegie Science planetary astronomer, Scott Sheppard said, according to AP. ALSO READ: Dying star glows like a cosmic crystal ball in stunning new telescope image Clues to the Solar System’s violent past Researchers believe studying Nereid could help explain how giant planets evolved during the early formation of the Solar System. The moon’s highly stretched orbit is viewed as possible evidence of past gravitational upheaval linked to Triton’s arrival. The Webb telescope observations also suggest Nereid has remained relatively unchanged over billions of years, potentially preserving material from the outer Solar System’s earliest period. Astronomers say the discovery is important because Neptune remains one of the least explored planets in the Solar System. Only NASA’s Voyager 2 spacecraft has ever flown past the planet, during its historic 1989 mission. Scientists hope future observations of Nereid and Neptune’s wider moon system could provide deeper insight into how planetary collisions, moon capture events and orbital instability shaped the architecture of the modern Solar System.

Nereid, discovered in 1949 by Dutch-American astronomer Gerard Kuiper, is the third-largest moon orbiting Neptune and follows one of the most eccentric orbits of any known planetary satellite.

Neptune’s mysterious moon Nereid may be the only survivor of an ancient cosmic crash, NASA's JSWT finds

This number is not static; new discoveries are added regularly by astronomers worldwide, and more than 8,000 additional candidate planets are awaiting confirmation.

This number is not static; new discoveries are added regularly by astronomers worldwide, and more than 8,000 additional candidate planets are awaiting confirmation.

NASA confirms discovery of 6,000 alien planets outside our solar system, could life exist out there?

Voyager 2’s flyby offered the first opportunity to study this storm up close, revealing a dynamic system that continues to challenge our understanding of planetary atmospheres.

Voyager 2’s flyby offered the first opportunity to study this storm up close, revealing a dynamic system that continues to challenge our understanding of planetary atmospheres.

Voyager 2 and Jupiter’s Great Red Spot: Inside the massive storm bigger than Earth

Earth is likely to witness asteroid 2025 OL1, which will make its closest pass on July 30, 2025. The size of the celestial visitor will be roughly equivalent to that of a small aircraft, measuring approximately 110 feet in diameter. It will travel at the speed of 16,904 miles per hour and will safely skip the Earth at a distance of approximately 1.29 million kilometres.&nbsp;NASA assured that the asteroid posed no threat but emphasised the critical need for continuous surveillance of near-Earth objects, as tracking these asteroids helps improve planetary defense from potential future cosmic collision threats.<h3>How will asteroid 2025 OL1 help scientists study?</h3>Close monitoring plays a significant role, as it offers scientists the chance to study an asteroid up close, better understand its trajectory, and refine detection techniques for future near-Earth objects.&nbsp;The latest observations by NASA confirmed that asteroid 2025 OL1 will not come close enough to endanger Earth. It has clarified that in order to be classified as potentially hazardous, a celestial visitor must pass within 7.4 million kilometres of our planet, and it must be at least 85 metres wide.&nbsp;Therefore, 2025 OL1 meets the distance and size criterion, as it is the closest approach of 1.29 million kilometres, so it is well outside the danger zone. The scientists are also tracking the asteroid’s path for any changes caused by gravitational forces or other influences in order to maintain preparedness against any unexpected shifts.Also read: <a href="https://www.wionews.com/trending/nasa-latest-asteroid-warning-is-earth-in-danger-9075334">NASA warns, monstrous 1,110-foot asteroid hurtling towards Earth is potential danger</a>&nbsp;Asteroid 2025 OL1 poses no threat, but the global space agencies are still maintaining the round-the-clock monitoring systems, using powerful telescopes and satellites. Scientists confirmed that each asteroid flyby improves understanding of these celestial visitors, which informs defence tactics.&nbsp;With technological progress, future missions aimed at testing asteroid deflection techniques could help shield Earth from possible dangers. In the meantime, scientists remain vigilant, encouraging to gaze upward with both wonder and awareness.

An asteroid, 2025 OL1, with a size roughly equivalent to that of a small aircraft, measuring approximately 110 feet in diameter, will safely skip the Earth at a distance of approximately 1.29 million kilometres on July 30, 2025.

Earth is likely to witness asteroid 2025 OL1, which will make its closest pass on July 30, 2025. The size of the celestial visitor will be roughly equivalent to that of a small aircraft, measuring approximately 110 feet in diameter. It will travel at the speed of 16,904 miles per hour and will safely skip the Earth at a distance of approximately 1.29 million kilometres. NASA assured that the asteroid posed no threat but emphasised the critical need for continuous surveillance of near-Earth objects, as tracking these asteroids helps improve planetary defense from potential future cosmic collision threats. How will asteroid 2025 OL1 help scientists study? Close monitoring plays a significant role, as it offers scientists the chance to study an asteroid up close, better understand its trajectory, and refine detection techniques for future near-Earth objects. The latest observations by NASA confirmed that asteroid 2025 OL1 will not come close enough to endanger Earth. It has clarified that in order to be classified as potentially hazardous, a celestial visitor must pass within 7.4 million kilometres of our planet, and it must be at least 85 metres wide. Therefore, 2025 OL1 meets the distance and size criterion, as it is the closest approach of 1.29 million kilometres, so it is well outside the danger zone. The scientists are also tracking the asteroid’s path for any changes caused by gravitational forces or other influences in order to maintain preparedness against any unexpected shifts. Also read: NASA warns, monstrous 1,110-foot asteroid hurtling towards Earth is potential danger Asteroid 2025 OL1 poses no threat, but the global space agencies are still maintaining the round-the-clock monitoring systems, using powerful telescopes and satellites. Scientists confirmed that each asteroid flyby improves understanding of these celestial visitors, which informs defence tactics. With technological progress, future missions aimed at testing asteroid deflection techniques could help shield Earth from possible dangers. In the meantime, scientists remain vigilant, encouraging to gaze upward with both wonder and awareness.

An asteroid, 2025 OL1, with a size roughly equivalent to that of a small aircraft, measuring approximately 110 feet in diameter, will safely skip the Earth at a distance of approximately 1.29 million kilometres on July 30, 2025.

Will asteroid 2025 OL1 hit Earth on July 30? Here's what NASA says

In a remarkable feat of engineering and scientific ambition, NASA’s Parker Solar Probe has flown closer to the Sun than any spacecraft before. In December 2024, the probe skimmed just 3.8 million miles from the solar surface, venturing deep into the corona, the Sun’s superheated outer atmosphere. Using its Wide‑Field Imager for Solar Probe (WISPR), Parker captured unprecedented high‑resolution images revealing dynamic structures within the solar wind: the steady stream of charged particles hurtling through space at over a million miles per hour. These extraordinary visuals have offered scientists their closest‑ever look at where space weather originates, helping to refine predictions vital to protecting astronauts, satellites, and power grids on Earth.<h2>Unveiling the secrets of solar wind and CMEs</h2>&nbsp;One of Parker’s key achievements has been to witness, up close, the heliospheric current sheet, the vast boundary where the Sun’s magnetic field reverses polarity from north to south. For the first time, scientists observed multiple coronal mass ejections (CMEs), immense eruptions of charged particles, colliding and merging, a process that can significantly intensify space weather impacts. Angelos Vourlidas, WISPR instrument scientist, described seeing CMEs 'piling up on top of one another', which could change their trajectory and increase the danger they pose to technology both in space and on the ground.&nbsp;The probe’s findings help explain how CMEs interact and how solar wind turbulence develops, providing insights into the magnetic forces shaping our space environment.&nbsp;<h2>Magnetic switchbacks and the slow solar wind mystery</h2> Since its launch in 2018, Parker Solar Probe has transformed scientists’ understanding of the solar wind first theorised by physicist Eugene Parker in 1958. Earlier passes revealed that the fast solar wind is partly driven by magnetic 'switchbacks', sudden zig‑zag bends in magnetic field lines emerging from coronal holes. These switchbacks, once considered rare, turned out to be far more common and clustered, playing a key role in accelerating the fast solar wind.&nbsp;

Parker Solar Probe captures stunning images

&nbsp;&nbsp;Yet the slow solar wind, which moves at roughly half the speed and is denser and more variable, remains less understood. Parker’s close observations suggest that this slower stream may originate from helmet streamers, large magnetic loops near the solar equator, but further study is needed to confirm this. Understanding both streams is critical, as interactions between them can create turbulent conditions near Earth, sometimes rivaling the effects of direct CME impacts.&nbsp;<h2>Looking ahead: towards deeper understanding</h2> The probe’s next close approach, set for September 2025, promises even richer data as it dives deeper into the corona. These groundbreaking discoveries are not merely academic: they have profound implications for predicting space weather, safeguarding astronauts and spacecraft, and ensuring the stability of power and communications systems on Earth, a reminder of how our daily lives remain deeply connected to our star.&nbsp;

These extraordinary visuals have offered scientists their closest‑ever look at where space weather originates, helping to refine predictions vital to protecting astronauts, satellites, and power grids on Earth.

In a remarkable feat of engineering and scientific ambition, NASA’s Parker Solar Probe has flown closer to the Sun than any spacecraft before. In December 2024, the probe skimmed just 3.8 million miles from the solar surface, venturing deep into the corona, the Sun’s superheated outer atmosphere. Using its Wide‑Field Imager for Solar Probe (WISPR), Parker captured unprecedented high‑resolution images revealing dynamic structures within the solar wind: the steady stream of charged particles hurtling through space at over a million miles per hour. These extraordinary visuals have offered scientists their closest‑ever look at where space weather originates, helping to refine predictions vital to protecting astronauts, satellites, and power grids on Earth. Unveiling the secrets of solar wind and CMEs One of Parker’s key achievements has been to witness, up close, the heliospheric current sheet, the vast boundary where the Sun’s magnetic field reverses polarity from north to south. For the first time, scientists observed multiple coronal mass ejections (CMEs), immense eruptions of charged particles, colliding and merging, a process that can significantly intensify space weather impacts. Angelos Vourlidas, WISPR instrument scientist, described seeing CMEs 'piling up on top of one another', which could change their trajectory and increase the danger they pose to technology both in space and on the ground. The probe’s findings help explain how CMEs interact and how solar wind turbulence develops, providing insights into the magnetic forces shaping our space environment. Magnetic switchbacks and the slow solar wind mystery Since its launch in 2018, Parker Solar Probe has transformed scientists’ understanding of the solar wind first theorised by physicist Eugene Parker in 1958. Earlier passes revealed that the fast solar wind is partly driven by magnetic 'switchbacks', sudden zig‑zag bends in magnetic field lines emerging from coronal holes. These switchbacks, once considered rare, turned out to be far more common and clustered, playing a key role in accelerating the fast solar wind.

These extraordinary visuals have offered scientists their closest‑ever look at where space weather originates, helping to refine predictions vital to protecting astronauts, satellites, and power grids on Earth.

Closer than ever: Parker Solar Probe captures stunning images deep within the Sun’s atmosphere

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'Newly released NASA audio': What Apollo astronauts actually saw in deep space

Neptune’s moon Nereid may be only survivor of cosmic crash, NASA's JSWT finds

NASA confirms discovery of 6,000 alien planets outside our solar system

Voyager 2 and Jupiter’s Red Spot: Inside the massive storm bigger than Earth

Will asteroid 2025 OL1 hit Earth on July 30? Here's what NASA says

Parker Solar Probe captures stunning images deep within the Sun’s atmosphere