Monday, October 06, 2025

Mars Images: Oct. 3-5, 2025 | NASA's Curiosity & Perseverance Rovers

Mars Images: Oct. 3-5, 2025 | NASA's Curiosity & Perseverance Rovers

Mars 2020 - sol 1644
Mars 2020 - sol 1644
Mars 2020 - sol 1644
Mars 2020 - sol 1644
MSL - sol 4679
Mars 2020 - sol 1643
MSL - sol 4679
Mars 2020 - sol 1644

Celebrating 13+ Years on Mars (2012-2024)
Mission Name: Mars Science Laboratory (MSL)
Rover Name: Curiosity
Main Job: To determine if Mars was ever habitable to microbial life. 
Launch: Nov. 6, 2011
Landing Date: Aug. 5, 2012, Gale Crater, Mars

Celebrating 4+ Years on Mars
Mission Name: Mars 2020
Rover Name: Perseverance
Main Job: Seek signs of ancient life and collect samples of rock and regolith (broken rock and soil) for return to Earth.
Launch: July 30, 2020    
Landing: Feb. 18, 2021, Jezero Crater, Mars

For more information on NASA's Mars missions, visit: mars.nasa.gov

Image Credits: NASA/JPL-Caltech/ASU/MSSS
Processing: Kevin M. Gill
Image Release Dates: Oct. 3-5, 2025

#NASA #Space #Astronomy #Science #Planets #Mars #Astrobiology #Geology #CuriosityRover #MSL #MountSharp #GaleCrater #PerseveranceRover #Mars2020 #JezeroCrater #Robotics #SpaceTechnology #SpaceEngineering #MSSS #JPL #Caltech #UnitedStates #CitizenScience #KevinGill #STEM #Education

Galaxy NGC 6951 in Cepheus: A Starbursting Center | Hubble

Galaxy NGC 6951 in Cepheus: A Starbursting Center | Hubble


The glittering galaxy in this NASA/European Space Agency Hubble Space Telescope picture is NGC 6951. It resides about 70 million light-years away in the constellation Cepheus.

As this Hubble image shows, NGC 6951 is a spiral galaxy with plenty of intriguing structures. Most eye-catching are its spiral arms dotted with brilliant red nebulae, bright blue stars and filamentary dust clouds. The spiral arms loop around the galactic center. It has a golden glow that comes from a population of older stars. The center of the galaxy is also distinctly elongated, revealing the presence of a slowly rotating bar of stars.

NGC 6951’s bar may be responsible for another remarkable feature: a white-blue ring that encloses the very heart of the galaxy. This is called a circumnuclear starburst ring—essentially, a circle of enhanced star formation around the nucleus of a galaxy. The bar funnels gas toward the center of the galaxy, where it collects in a ring about 3800 light-years across. Two dark dust lanes that run parallel to the bar mark the points where gas from the bar enters the ring.

The dense gas of a circumnuclear starburst ring is the perfect environment to churn out an impressive number of stars. Using data from Hubble, astronomers have identified more than 80 potential star clusters within NGC 6951’s ring. Many of the stars formed less than 100 million years ago, but the ring itself is longer-lived, potentially having existed for 1–1.5 billion years.

Astronomers have imaged NGC 6951 with Hubble for a wide variety of reasons, including mapping the dust in nearby galaxies, studying the centers of disc galaxies and keeping tabs on recent supernovae (of which NGC 6951 has hosted five or six).

Image Description: A spiral galaxy with large, open arms. A bar of yellow light, where old stars are gathered, crosses the middle of the disk. The very center is a white point surrounded by a small, shining ring of star clusters. Thin lanes of dust swirl around this ring, reaching out to follow the spiral arms; also visible across the arms are red, glowing spots where stars are forming. To the right a star shines large and bright.


Credit: ESA/Hubble & NASA, L. C. Ho, G. Brammer, A. Filippenko, C. Kilpatrick
Release Date: Oct. 6, 2025

#NASA #ESA #Astronomy #Space #Science #Hubble #Stars #Galaxies #NGC6951 #StarburstGalaxies #Cepheus #Constellations #Cosmos #Universe #HubbleSpaceTelescope #HST #GSFC #STScI #UnitedStates #Europe #STEM #Education

Sunday, October 05, 2025

Comet C/2025 A6 Lemmon: View from New Mexico

Comet C/2025 A6 Lemmon: View from New Mexico

Comet Lemmon is brightening and moving into morning northern skies. Besides Comet SWAN25B and Comet ATLAS, Comet C/2025 A6 (Lemmon) is now the third comet currently visible with binoculars and on long camera exposures. Comet Lemmon was discovered early this year and is still headed into the inner Solar System. The comet will round the Sun on November 8, but first it will pass its nearest to the Earth—at about half the Earth-Sun distance—on October 21. 

Although the brightnesses of comets are notoriously hard to predict, optimistic estimates have Comet Lemmon then becoming visible to the unaided eye. The comet should be best seen in predawn skies until mid-October, when it also becomes visible in evening skies.

New Mexico is a state in the Southwestern region of the United States. It is one of the Mountain States of the southern Rocky Mountains, sharing the Four Corners region with Utah, Colorado, and Arizona. It also borders the state of Texas to the east and southeast, Oklahoma to the northeast, and shares an international border with the Mexican states of Chihuahua and Sonora to the south.


Image Credit: Rolando Ligustri
Image Details: NW 300/1140 (Astrottica) CCD ASI 2600MM in bin2 RGB=3x60s L=15x60s field of view of 44'x65', Astroart and PS processing
Location: Astrottica Observatory, New Mexico, USA
Capture Date: Oct. 5, 2025

#NASA #Astronomy #Space #Science #Comets #CometC2025A6Lemmon #Coma #CometaryTails #SolarSystem #MilkyWayGalaxy #Cosmos #Universe #Astrophotography #RolandoLigustri #Astrophotographers #NewMexico #UnitedStates #STEM #Education

Herodotus Omega Dome on Moon's Near-side | NASA's Lunar Reconnaissance Orbiter

Herodotus Omega Dome on Moon's Near-side | NASA's Lunar Reconnaissance Orbiter

This video, created by the Lunar Reconnaissance Orbiter Camera (LROC) team using data from the digital terrain model (DTM), showcases the relief of Herodotus Omega dome as a three-dimensional model, offering a clearer view of its topography.

Although active volcanism on the Moon largely ceased over a billion years ago, remnants of ancient volcanic activity persist in many landforms we still see today. These include the lunar maria, as well as rilles, cones, and domes. The focus of this featured image post is the dome, Herodotus Omega, located in central Oceanus Procellarum ("Ocean of Storms") on the western lunar nearside (20.25°N, 309.93°E). Unlike most lunar domes, typically found in clusters, Herodotus Omega stands alone. While the full extent of this dome is difficult to discern in the above image due to its relatively gentle slope and low relief, its diameter measures about 12 kilometers, and it rises to a maximum height of about 220 meters above the surrounding mare surface. As is typical for lunar domes, Herodotus Omega is named by appending a Greek letter to the name of a nearby major crater—Herodotus crater, located about 70 kilometers north of the dome.

Scientists estimate that lunar domes formed over a roughly one-billion year period beginning around 3.7 billion years ago. Although the specific origin of Herodotus Omega remains unknown, it exhibits characteristics similar to other domes found throughout the lunar maria. Mare domes are much more common than non-mare domes, and can be divided into seven distinct classes. Although Herodotus Omega has not been officially classified, characteristics of its (likely) summit pit, cross-sectional shape, diameter, and slope suggest that it belongs to Class 1 or 2 (Head and Gifford, 1980). Like most mare domes, Herodotus Omega also exhibits relatively low albedo (the fraction of sunlight that is diffusely reflected by a body) when compared to non-mare domes, such as those found in the Gruithuisen region.

The western mare features widespread evidence of past volcanic activity. The domes of these lunar seas have long been of interest to the scientific community. NASA once even considered the Hortensius Domes, a group of mare domes in nearby Mare Insularum ("Sea of Islands"), as a possible target for crewed exploration under the Constellation program. However, the program's unfortunate cancellation in 2010 halted those plans. While we hope that Herodotus Omega and the other domes of the western mare eventually welcome their first robotic or human explorer, they currently stand silently awaiting their arrival.


Video Credit: NASA's Lunar Reconnaissance Orbiter/GSFC/Arizona State University
Article Credit: Steven Nystrom
Duration: 2 minutes, 25 seconds
Release Date: July 2, 2025

#NASA #Space #Astronomy #Science #Earth #Moon #Geology #Geoscience #Topography #LunarDomes #HerodotusOmega #HerodotusOmegaDome #LunarNearSide #HerodotusCrater  #OceanusProcellarum #LRO #LROC #LunarOrbiter #LunarSpacecraft #SpaceTechnology #GSFC #ASU #UnitedStates #SolarSystem #SpaceExploration #STEM #Education #HD #Video

'Dome Alone': A Lunar Mystery Near Herodotus Crater | NASA LRO

'Dome Alone': A Lunar Mystery Near Herodotus Crater | NASA LRO

The Herodotus Omega dome rises gradually above the surrounding mare. The large, irregularly shaped depression towards the right is likely a summit pit. Image width is 7.5 kilometers, centered at 20.25°N, 309.93°E. The dark mare surface of Oceanus Procellarum is visible, along with its scars of many bright impact craters. The possible summit pit of the dome stands out as a large S-shaped depression.
This view shows the same area as the previous image, but is overlaid with graduated colors to indicate the elevation of the surface. The outside of the dome's boundaries is colored light blue, which gradually changes to dark red as the elevation increases towards the center of the dome, before sharply falling to dark blue at the bottom of the possible summit pit. This color-shaded digital terrain model DTM helps reveal the relief of the Herodotus Omega dome. The elevation ranges from -1,916 m (blue) to -1,523 (red). Image width is 7.5 kilometers, centered at 20.25°N, 309.93°E.

Although active volcanism on the Moon largely ceased over a billion years ago, remnants of ancient volcanic activity persist in many landforms we still see today. These include the lunar maria, as well as rilles, cones, and domes. The focus of this featured image post is the dome, Herodotus Omega, located in central Oceanus Procellarum ("Ocean of Storms") on the western lunar nearside (20.25°N, 309.93°E). Unlike most lunar domes, typically found in clusters, Herodotus Omega stands alone. While the full extent of this dome is difficult to discern in the above image due to its relatively gentle slope and low relief, its diameter measures about 12 kilometers, and it rises to a maximum height of about 220 meters above the surrounding mare surface. As is typical for lunar domes, Herodotus Omega is named by appending a Greek letter to the name of a nearby major crater—Herodotus crater, located about 70 kilometers north of the dome.

Scientists estimate that lunar domes formed over a roughly one-billion year period beginning around 3.7 billion years ago. Although the specific origin of Herodotus Omega remains unknown, it exhibits characteristics similar to other domes found throughout the lunar maria. Mare domes are much more common than non-mare domes, and can be divided into seven distinct classes. Although Herodotus Omega has not been officially classified, characteristics of its (likely) summit pit, cross-sectional shape, diameter, and slope suggest that it belongs to Class 1 or 2 (Head and Gifford, 1980). Like most mare domes, Herodotus Omega also exhibits relatively low albedo (the fraction of sunlight that is diffusely reflected by a body) when compared to non-mare domes, such as those found in the Gruithuisen region.

The western mare features widespread evidence of past volcanic activity. The domes of these lunar seas have long been of interest to the scientific community. NASA once even considered the Hortensius Domes, a group of mare domes in nearby Mare Insularum ("Sea of Islands"), as a possible target for crewed exploration under the Constellation program. However, the program's unfortunate cancellation in 2010 halted those plans. While we hope that Herodotus Omega and the other domes of the western mare eventually welcome their first robotic or human explorer, they currently stand silently awaiting their arrival.


Image Credit: NASA's Lunar Reconnaissance Orbiter/GSFC/Arizona State University
Article Credit: Steven Nystrom
Release Date: July 16, 2025


#NASA #Space #Astronomy #Science #Earth #Moon #Geology #Geoscience #Terrain #Topography #LunarDomes #HerodotusOmega #HerodotusOmegaDome #LunarNearSide #HerodotusCrater  #OceanusProcellarum #LRO #LROC #LunarOrbiter #LunarSpacecraft #SpaceRobotics #SpaceTechnology #GSFC #ASU #UnitedStates #SolarSystem #SpaceExploration #STEM #Education

Europe's Upcoming ExoMars Rosalind Franklin Mission: Sample Processing | ESA

Europe's Upcoming ExoMars Rosalind Franklin Mission: Sample Processing | ESA

The intricate mechanisms of what will be the most sophisticated laboratory on Mars yet are revealed in this video on the European Space Agency's ExoMars Rosalind Franklin rover. The Rosalind Franklin rover’s drill has a maximum reach of two meters—deeper than any other mission has ever attempted on the Red Planet. This depth allows access to well-preserved organic material from four billion years ago, when conditions on the surface of Mars were more like those on infant Earth. 

After receiving a sample from the drill, Rosalind’s laboratory must prepare the sample to make a detailed study of its mineral and chemical composition. The rover’s Analytical Laboratory Drawer (ALD) mechanisms execute a pre-programmed choreography of sample manipulations to make sure that the instruments can do their job.   

The ExoMars Rosalind Franklin mission is part of Europe’s ambitious exploration journey to search for past and present signs of life on Mars.

When can the Rosalind Franklin Rover be launched?

It will take at least 2-3 years to build and qualify a new European lander. Then it is down to launch windows. The best opportunities to launch to Mars occur every two years when Earth and Mars are optimally aligned. The earliest launch opportunity for the Rosalind Franklin Mission has been identified as 2028, which will see a two-year transfer to Mars. This balances the time needed to build the necessary mission elements with a good mission scenario of landing in 2030. The time of arrival on Mars is important, as we need to ensure at least six months of operations before the start of Mars’ northern hemisphere fall and winter when the atmosphere is generally more dusty, and when Mars’ global dust storms may happen. In this respect, it is better to adopt a longer transfer profile (two years) and land in a favourable time to perform the rover mission, than to make a shorter trip that brings the rover earlier to Mars, but too close to the start of the Global Dust Season, an event where the survivability of the rover cannot be guaranteed.


Credits: European Space Agency (ESA)
Production: Mlabspace for ESA
3D Animation: ESA/Mlabspace
Release Date: Oct. 5, 2025

#NASA #ESA #Space #Astronomy #Science #Planets #Mars #ExoMars #Rover #RosalindFranklin #Geology #Astrobiology #Europe #STEM #Education #HD #Video

Star Formation Region N11 in Nearby Large Magellanic Cloud Galaxy | Hubble

Star Formation Region N11 in Nearby Large Magellanic Cloud Galaxy | Hubble

This broad vista of young stars and gas clouds in our neighboring galaxy, the Large Magellanic Cloud, was captured by the NASA/European Space Agency Hubble Space Telescope’s Advanced Camera for Surveys (ACS). This region is named LHA 120-N 11, informally known as N11, and is one of the most active star formation regions in the nearby Universe. Distance: 170,000 light years


Credit: NASA, European Space Agency, Space Telescope Science Institute (STScI)
Image Processing: Judy Schmidt
Release Date: August 5, 2012

#NASA #ESA #Astronomy #Space #Science #Hubble #Stars #Nebulae #LHA120N11 #StellarNursery #LargeMagellanicCloud #LMC #Galaxies #Dorado #Constellations #Cosmos #Universe #HubbleSpaceTelescope #HST #GSFC #STScI #CitizenScience #JudySchmidt #UnitedStates #Europe #STEM #Education

Saturday, October 04, 2025

Pink & Green Aurora 'Ribbons' over Alberta

Pink & Green Aurora 'Ribbons' over Alberta




Photographer Karsten Berger: "It was the last night of my vacation and it was truly memorable. Again, the northern lights came out very early during sunset and put on a show. After several coronas, they turned bright pink and didn’t stop shining for several minutes. I have never seen them last that long."

On Earth, auroras are mainly created by particles originally emitted by the Sun in the form of solar wind. When this stream of electrically charged particles gets close to our planet, it interacts with the magnetic field, acting as a gigantic shield. While it protects Earth’s environment from solar wind particles, it can also trap a small fraction of them. Particles trapped within the magnetosphere—the region of space surrounding Earth where charged particles are affected by its magnetic field—can be energized and then follow the magnetic field lines down to the magnetic poles. There, they interact with oxygen and nitrogen atoms in the upper layers of the atmosphere, creating the flickering, colorful lights visible in the polar regions here on Earth.

Earth auroras are named depending on the pole they occur at. Aurora Borealis, or the southern lights, is the name given  to auroras around the north pole and Aurora Australis, or the southern lights, is the name given for auroras around the south pole.

The Colors of the Aurora (U.S. National Park Service)

Alberta is a province in Canada. It is a part of Western Canada and is one of the three prairie provinces. Alberta is bordered by British Columbia to its west, Saskatchewan to its east, the Northwest Territories to its north, and the U.S. state of Montana to its south. Alberta and Saskatchewan are the only two landlocked Canadian provinces.

Image Credit: Karsten Berger
Capture Location: High Level, Alberta
Image Date: Oct. 2, 2025

#NASA #Astronomy #Space #Science #Planets #Earth #Aurora #AuroraBorealis #NorthernLights #MagneticField #Magnetosphere #SolarWind #Sun #Stars #Photography #KarstenBerger #Photographer #CitizenScience #Alberta #Canada #NorthernHemisphere #STEM #Education

Comet C\2025 A6 Lemmon: View from Italy

Comet C\2025 A6 Lemmon: View from Italy

Discovered in early 2025 by the Mount Lemmon Survey, Comet Lemmon is brightening and moving into morning northern skies. In addition to Comet SWAN25B and Comet ATLAS, Comet C/2025 A6 (Lemmon) is now the third comet currently visible with binoculars and on long camera exposures. Comet Lemmon is still headed into the inner Solar System. The comet will round the Sun on November 8, but first it will pass its nearest to the Earth—at about half the Earth-Sun distance—on October 21. 

Although the brightnesses of comets are notoriously hard to predict, optimistic estimates have Comet Lemmon then becoming visible to the unaided eye. The comet should be best seen in predawn skies until mid-October, when it also becomes visible in evening skies.


Italy, officially the Italian Republic, is a country in Southern and Western Europe. It consists of a peninsula that extends into the Mediterranean Sea, with the Alps on its northern land border, as well as nearly 800 islands, notably Sicily and Sardinia. Italy shares land borders with France to the west; Switzerland and Austria to the north; Slovenia to the east; and the two enclaves of Vatican City and San Marino.


Image Credit: Gianni Lacroce
Release Date: Oct. 4, 2025


#NASA #Astronomy #Space #Science #Comets #CometC2025A6Lemmon #Coma #CometaryTails #SolarSystem #MilkyWayGalaxy #Cosmos #Universe #Astrophotography #GianniLacroce #Astrophotographers #CitizenScience #Italy #Italia #STEM #Education

The Stars & Planet Earth: Orbital Night Activities | International Space Station

The Stars & Planet Earth: Orbital Night Activities | International Space Station


Expedition 73 flight engineer and Japan Aerospace Exploration Agency (JAXA) astronaut Kimiya Yui: "This shows the North Star setting. From the International Space Station, it rises and sets each time it passes over the equator. Please watch while using the Big Dipper's large ladle as a guide to find the North Star."

Views of Earth at night have been a curiosity for the public and a tool of fundamental research for at least 25 years. They have provided a broad, beautiful picture, showing how humans have shaped the planet and lit up the darkness.

Follow Expedition 73:

Expedition 73 Crew
Station Commander: Sergey Ryzhikov (Roscosmos)
JAXA Flight Engineer (Japan): Kimiya Yui
Roscosmos (Russia) Flight Engineers: Alexey Zubritskiy, Oleg Platonov
NASA Flight Engineers: Jonny Kim, Zena Cardman, Mike Fincke

An international partnership of space agencies provides and operates the elements of the International Space Station (ISS). The principals are the space agencies of the United States, Russia, Europe, Japan, and Canada.

Video Credit: Japan Aerospace Exploration Agency (JAXA)/Kimiya Yui
Duration: 56 seconds
Date: Sept. 28, 2025

#NASA #Space #ISS #Science #Stars #Planets #Earth #Astronauts #AstronautVideography #KimiyaYui #油井亀美也 #Japan #日本 #JAXA #宇宙航空研究開発機構 #Cosmonauts #Russia #Roscosmos #HumanSpaceflight #SpaceLaboratory #InternationalCooperation #Expedition73 #UnitedStates #STEM #Education #HD #Video

Women also play key roles in global space exploration | IAC 2025

Women also play key roles in global space exploration | IAC 2025

At the 76th International Astronautical Congress (IAC) in Sydney, Australia, September 29-October 3, 2025, organized by the International Astronautical Federation (IAF), CGTN reporter Wu Lei had an opportunity to ask pioneers like Yi So-yeon, South Korea's first astronaut, and veteran Canadian astronaut Julie Payette about their insights on women's growing involvement in space. While Dr. Yi emphasized the urgent need for more female participation to expand critical medical data for long-duration missions, Payette encouraged young girls to build every skill and be ready when opportunity calls. Their messages capture our attention as women, like Chinese taikonauts Liu Yang, Wang Yaping and Wang Haoze, continue making history aboard China's space station—proving that space belongs to all who dare to dream.

Learn more about the International Astronautical Federation (IAF):
https://www.iafastro.org


Video Credit: CGTN
Duration: 2 minutes, 15 seconds
Release Date: Oct. 3, 2025

#NASA #Space #Planets #Earth #Moon #Mars #HumanSpaceflight #Astronauts #Taikonauts #Women #WomenInSTEM #Equity #EqualOpportunity #Leaders #Leadership #SoYeonYi #YiSoYeon #SouthKorea #대한민국 #JuliePayette #Canada #CSA #IAF #IAC #IAC76 #Sydney #Australia #STEM #Education #HD #Video

The Belt of Venus | International Space Station

The Belt of Venus | International Space Station


NASA astronaut Don Pettit: "The Belt of Venus [as] seen from the International Space Station. An atmospheric phenomena where the setting sun projects light past Earth's horizon curve, layered over its shadow. Twilight observers on Earth see a pink band over the approaching dark, opposite the sun. From orbit we see it all at once. I took these images on my first mission to the ISS in 2003. They are old, but great visuals of the effect."

This image from low-Earth orbit was captured by experienced NASA astronaut and former Expedition 71/72 flight engineer, Don Pettit. NASA astronaut Don Pettit returned to Earth on April 19, 2025, concluding a seven-month science mission aboard the International Space Station. Pettit spent 220 days in space, earning him a total of 590 days in space over the course of his four spaceflights. He orbited the Earth 3,520 times, traveling 93.3 million miles in low-Earth orbit.

Follow Expedition 73:

Expedition 73 Crew
Station Commander: Sergey Ryzhikov (Roscosmos)
JAXA Flight Engineer (Japan): Kimiya Yui
Roscosmos (Russia) Flight Engineers: Alexey Zubritskiy, Oleg Platonov
NASA Flight Engineers: Jonny Kim, Zena Cardman, Mike Fincke

An international partnership of space agencies provides and operates the elements of the International Space Station (ISS). The principals are the space agencies of the United States, Russia, Europe, Japan, and Canada.

Learn more about the important research being operated on Station:
https://www.nasa.gov/iss-science

For more information about STEM on Station:
https://www.nasa.gov/stemonstation
Science, Technology, Engineering, Math (STEM)

Image Credit: NASA's Johnson Space Center/D. Pettit
Release Date: Oct. 2, 2025


#NASA #Space #ISS #Science #SolarSystem #Sun #Starlight #Planets #Earth #Atmosphere #BeltOfVenus #Astronauts #DonPettit #AstronautPhotography #UnitedStates #Japan #JAXA #Cosmonauts #Russia #Россия #Roscosmos #HumanSpaceflight #SpaceLaboratory #InternationalCooperation #Expedition6 #STEM #Education

Friday, October 03, 2025

Aurora Borealis: An October Night in Rural Saskatchewan

Aurora Borealis: An October Night in Rural Saskatchewan

On Earth, auroras are mainly created by particles originally emitted by the Sun in the form of solar wind. When this stream of electrically charged particles gets close to our planet, it interacts with the magnetic field, which acts as a gigantic shield. While it protects Earth’s environment from solar wind particles, it can also trap a small fraction of them. Particles trapped within the magnetosphere—the region of space surrounding Earth in which charged particles are affected by its magnetic field—can be energized and then follow the magnetic field lines down to the magnetic poles. There, they interact with oxygen and nitrogen atoms in the upper layers of the atmosphere, creating the flickering, colorful lights visible in the polar regions here on Earth.

Earth auroras have different names depending on the pole they occur at. Aurora Borealis, or the northern lights, is the name given to auroras around the north pole and Aurora Australis, or the southern lights, is the name given for auroras around the south pole.

The Colors of the Aurora (U.S. National Park Service)

Image Credit: Gerry Pocha
Image Details: Sony ILCE-7M3, Viltrox 16mm F1.8 FE
Image Date: October 1, 2025

#NASA #Astronomy #Space #Science #Planets #Earth #Aurora #AuroraBorealis #NorthernLights #MagneticField #Magnetosphere #SolarWind #Sun #Star #Photography #GerryPocha #Photographer #CitizenScience #Saskatchewan #Canada #NorthAmerica #STEM #Education

'Break the Ice Winner' Tests Lunar Rover Tech in NASA Thermal Vacuum Chamber

'Break the Ice Winner' Tests Lunar Rover Tech in NASA Thermal Vacuum Chamber

One year after winning second place in NASA’s Break the Ice Lunar Challenge, members of the small business, Starpath, visited NASA’s Marshall Space Flight Center in Huntsville, Alabama, as part of their prize opportunity to test their upgraded lunar regolith excavation and transportation rover in the center’s 20-foot thermal vacuum chamber.

The technology startup headquartered in Hawthorne, California, won second place overall at the Break the Ice Lunar Challenge’s live demonstration and finale in June 2024. This competition, one of NASA’s Centennial Challenges, tasked competitors to design, build, and demonstrate robotic technologies that could excavate and transport the icy, rocky dirt—otherwise known as regolith—found on the Moon.

As a future landing site for NASA’s Artemis missions, which will send astronauts to the Moon and prepare to send the first Americans to Mars, the South Pole region of the Moon is known to contain ice within its regolith. This was the leading inspiration behind the development of the Break the Ice Lunar Challenge, as NASA will require robust technologies that can excavate and transport lunar ice for extraction, purification, and use as drinking water or rocket fuel.

Learn more about NASA Centennial Challenges: 
nasa.gov/winit


Video Credit: NASA's Marshall Space Flight Center (MSFC)
Duration: 2 minutes, 33 seconds
Release Date: Sept. 26, 2025

#NASA #Space #Astronomy #Earth #Moon #ArtemisProgram #CentennialChallenges #BreakTheIceLunarChallenge #Starpath #LunarRovers #Geology #Regolith #LunarIce #SpaceTechnology #Engineering #Robotics #MSFC #Huntsville #Alabama #UnitedStates #STEM #Education #HD #Video

Mars Images: Sept. 30-Oct. 2, 2025 | NASA's Curiosity & Perseverance Rovers

Mars Images: Sept. 30-Oct. 2, 2025 | NASA's Curiosity & Perseverance Rovers

Mars 2020 - sol 1640
MSL - sol 4676
Mars 2020 - sol 1639
MSL - sol 4676
Mars 2020 - sol 1640
Mars 2020 - sol 1642
MSL - sol 4676
MSL - sol 4675

Celebrating 13+ Years on Mars (2012-2024)
Mission Name: Mars Science Laboratory (MSL)
Rover Name: Curiosity
Main Job: To determine if Mars was ever habitable to microbial life. 
Launch: Nov. 6, 2011
Landing Date: Aug. 5, 2012, Gale Crater, Mars

Celebrating 4+ Years on Mars
Mission Name: Mars 2020
Rover Name: Perseverance
Main Job: Seek signs of ancient life and collect samples of rock and regolith (broken rock and soil) for return to Earth.
Launch: July 30, 2020    
Landing: Feb. 18, 2021, Jezero Crater, Mars

For more information on NASA's Mars missions, visit: mars.nasa.gov

Image Credits: NASA/JPL-Caltech/ASU/MSSS
Processing: Kevin M. Gill
Image Release Dates: Sept. 30-Oct. 2, 2025

#NASA #Space #Astronomy #Science #Planets #Mars #Astrobiology #Geology #CuriosityRover #MSL #MountSharp #GaleCrater #PerseveranceRover #Mars2020 #JezeroCrater #Robotics #SpaceTechnology #SpaceEngineering #MSSS #JPL #Caltech #UnitedStates #CitizenScience #KevinGill #STEM #Education

Shape of Gemini Constellation in Three Dimensions | Space Telescope Science Institute

Shape of Gemini Constellation in Three Dimensions | Space Telescope Science Institute

This visualization reveals the stars of the Gemini constellation in three dimensions. Watch as the familiar pattern on the sky distorts into a whole new perspective.

The sequence begins with a night sky view, and the constellations Orion and Taurus just above the horizon. As the camera pans up, the constellation Gemini (The Twins) takes center stage with its brightest stars, Castor and Pollux, at the top. The constellation Auriga can be found in the lower right with its bright stars forming a pentagon shape. Above and a bit left of Gemini, the Beehive Cluster, in the constellation Cancer, is an open star cluster containing over 1,000 stars.

As the view begins to orbit, and the constellation distorts into 3D space, Castor and Pollux reveal themselves as the closest stars. Approaching a sideways view,  multiple star clusters pass below the right side of the constellation, including the Hyades cluster and the Pleiades (both in Taurus). The dark cloud of dust in that region is the Taurus Molecular Cloud, a star-forming region 430 light years from the Sun. The two most distant stars in the Gemini constellation are Mekbuda and Mebsuta, at 1,200 light years and 900 light years from the Sun, respectively. Note that the Beehive Cluster remains visible above the constellation during the entire spin.

This visualization features over 11 million stars down to a magnitude of 13.5 across the sky. The positions, colors, and luminosities are based on the Gaia and Hipparcos star catalogs, complemented by the HYG Database. This includes data from the Yale and Gliese catalogs. Interstellar dust is visualized using data from the Edenhofer et al map out to a distance of 1.25 kiloparsecs (~4,000 ly) from the Sun and from the Lallement et al data out to 3 kiloparsecs (~9,800 ly). The rest of the Milky Way plane is recreated using simulated spiral galaxy data for stars and dust from the Horizon GalMer database.


Credits: Space Telescope Science Institute (STScI)
Visualization: Christian Nieves, Frank Summers (STScI)
Motion Graphics: Ralf Crawford (STScI)
Duration: 1 minute, 54 seconds
Release Date: Oct. 1, 2025

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