#moonmission — Public Fediverse posts
Live and recent posts from across the Fediverse tagged #moonmission, aggregated by home.social.
-
What happened, Moon Mission?
After watching the video, I am thinking, we should land a Starship in a deep crater and unload the Lunar Boring Machines sooner rather than later. Bore an opening to the massive lava tubes, mine the water ice that covers the floor of the lava tube, and build the habitat.??
https://www.youtube.com/watch?v=n-nUKSLPw6c
If we are actually planning to stay on the Moon, we need the protection of a hundred meters of regolith. And the water ice to stay alive…
‘I was thinking that for years…’Prompt:
Video Link
Summarize and list the key pointsGemini Said:
This video by Astrum Extra, titled “Exactly How We’re Going to Colonise the Moon,” is a compilation discussing human return to the Moon, lunar science, and recent exploration missions.Video Summary
The video explores humanity’s ongoing efforts and technical strategies to set up permanent bases on the Moon. It details how satellite mappers (like NASA’s LRO and South Korea’s Danuri/ShadowCam) identify crucial lunar resources and shelter sites, examines the test results and mission progression of NASA’s Artemis program (from Artemis 1 through Artemis 4), and reviews the findings of India’s Chandrayaan-3 mission regarding the search for water ice at the lunar South Pole [00:51], [08:41], [13:58], [01:13:04].
Key Takeaways & Points
1. Lunar Geology & Natural Resources
- Pit Craters & Lava Tubes: The Lunar Reconnaissance Orbiter (LRO) discovered pit craters over 100 meters deep that lead to subterranean lava tube cave systems [02:34], [03:06]. These offer natural protection from lethal solar/cosmic radiation and meteorites, serving as ideal shelter locations for human habitats [03:53], [04:16].
- Lunar Water Cycle: Trace amounts of water exist in the surface regolith and shift in a subtle cycle driven by temperature changes throughout the lunar day [04:41], [05:11].
- Permanently Shadowed Regions (PSRs): Polar craters shielded from direct sunlight reach temperatures as low as -250°C, making them the coldest measured places in the solar system [05:54], [06:46]. These “cold traps” host locked reserves of water ice along with carbon dioxide, carbon monoxide, and nitrogen compounds [07:04], [07:23].
2. Mapping and Imaging Advancements
- ShadowCam (Danuri Orbiter): Developed by NASA and carried aboard South Korea’s KPLO (Danuri), ShadowCam features 200-times greater light sensitivity than LRO cameras, allowing scientists to peer deep into shadowed crater interiors like Shackleton Crater to inspect for surface ice deposits [08:41], [09:08], [09:23].
3. The Artemis Program Milestones & Challenges
- Artemis 1 (Uncrewed Flight Test): Successfully launched aboard the SLS rocket in late 2022, placing the Orion capsule into a distant retrograde orbit around the Moon and testing key autonomous navigation, deep-space life support systems, and atmospheric re-entry [15:38], [21:43], [26:06].
- Anomalies Identified: Post-flight inspections revealed heat shield erosion (AVcoat material charring/chipping unexpectedly during re-entry) and minor helium/propulsion system leaks [35:52], [36:08], [01:06:07].
- Artemis 2 (Crewed Flyby): Designed as a 10-day mission carrying four astronauts (Reed Wiseman, Victor Glover, Christina Koch, and Jeremy Hansen) to perform flybys of the Moon, testing human systems, optical laser communication (O2O), and radiation exposures in deep space [29:43], [50:23], [53:49], [55:55].
- Artemis 3 & 4 Adjustments: Artemis 3 was shifted to a low-Earth orbit docking test (similar to Apollo 9) to lower technical risk, targeting the actual crewed lunar landing at the South Pole for Artemis 4 [38:32], [39:33], [41:51].
- Next-Gen Suits & Tools: Astronauts will use modern Axiom Space suits (built with Prada) and specialized instruments (like DUSTER) to withstand extreme cold and fine, abrasive lunar glass dust [43:21], [44:41], [45:37].
4. Chandrayaan-3 and the Search for Ice
- Historic Landing: India’s ISRO became the first agency to land a spacecraft (Vikram lander and Pragyan rover) near the lunar South Pole on a budget of ~$75 million [01:13:12], [01:17:28].
- Surface Composition: In-situ testing detected elements like aluminum, titanium, iron, calcium, oxygen, and sulfur in the polar regolith [01:19:12], [01:19:21].
- Where Is the Water? The rover found no immediate surface ice or hydrogen in the top layer [01:19:43], [01:23:57]. However, thermal probes revealed that while surface temperatures reached ~60°C, temperatures plunged down to -10°C just 8 cm below the surface, showing that lunar regolith acts as an insulator and suggesting water ice is buried underneath [01:24:25], [01:25:03].
-
What happened, Moon Mission?
After watching the video, I am thinking, we should land a Starship in a deep crater and unload the Lunar Boring Machines sooner rather than later. Bore an opening to the massive lava tubes, mine the water ice that covers the floor of the lava tube, and build the habitat.??
https://www.youtube.com/watch?v=n-nUKSLPw6c
If we are actually planning to stay on the Moon, we need the protection of a hundred meters of regolith. And the water ice to stay alive…
‘I was thinking that for years…’Prompt:
Video Link
Summarize and list the key pointsGemini Said:
This video by Astrum Extra, titled “Exactly How We’re Going to Colonise the Moon,” is a compilation discussing human return to the Moon, lunar science, and recent exploration missions.Video Summary
The video explores humanity’s ongoing efforts and technical strategies to set up permanent bases on the Moon. It details how satellite mappers (like NASA’s LRO and South Korea’s Danuri/ShadowCam) identify crucial lunar resources and shelter sites, examines the test results and mission progression of NASA’s Artemis program (from Artemis 1 through Artemis 4), and reviews the findings of India’s Chandrayaan-3 mission regarding the search for water ice at the lunar South Pole [00:51], [08:41], [13:58], [01:13:04].
Key Takeaways & Points
1. Lunar Geology & Natural Resources
- Pit Craters & Lava Tubes: The Lunar Reconnaissance Orbiter (LRO) discovered pit craters over 100 meters deep that lead to subterranean lava tube cave systems [02:34], [03:06]. These offer natural protection from lethal solar/cosmic radiation and meteorites, serving as ideal shelter locations for human habitats [03:53], [04:16].
- Lunar Water Cycle: Trace amounts of water exist in the surface regolith and shift in a subtle cycle driven by temperature changes throughout the lunar day [04:41], [05:11].
- Permanently Shadowed Regions (PSRs): Polar craters shielded from direct sunlight reach temperatures as low as -250°C, making them the coldest measured places in the solar system [05:54], [06:46]. These “cold traps” host locked reserves of water ice along with carbon dioxide, carbon monoxide, and nitrogen compounds [07:04], [07:23].
2. Mapping and Imaging Advancements
- ShadowCam (Danuri Orbiter): Developed by NASA and carried aboard South Korea’s KPLO (Danuri), ShadowCam features 200-times greater light sensitivity than LRO cameras, allowing scientists to peer deep into shadowed crater interiors like Shackleton Crater to inspect for surface ice deposits [08:41], [09:08], [09:23].
3. The Artemis Program Milestones & Challenges
- Artemis 1 (Uncrewed Flight Test): Successfully launched aboard the SLS rocket in late 2022, placing the Orion capsule into a distant retrograde orbit around the Moon and testing key autonomous navigation, deep-space life support systems, and atmospheric re-entry [15:38], [21:43], [26:06].
- Anomalies Identified: Post-flight inspections revealed heat shield erosion (AVcoat material charring/chipping unexpectedly during re-entry) and minor helium/propulsion system leaks [35:52], [36:08], [01:06:07].
- Artemis 2 (Crewed Flyby): Designed as a 10-day mission carrying four astronauts (Reed Wiseman, Victor Glover, Christina Koch, and Jeremy Hansen) to perform flybys of the Moon, testing human systems, optical laser communication (O2O), and radiation exposures in deep space [29:43], [50:23], [53:49], [55:55].
- Artemis 3 & 4 Adjustments: Artemis 3 was shifted to a low-Earth orbit docking test (similar to Apollo 9) to lower technical risk, targeting the actual crewed lunar landing at the South Pole for Artemis 4 [38:32], [39:33], [41:51].
- Next-Gen Suits & Tools: Astronauts will use modern Axiom Space suits (built with Prada) and specialized instruments (like DUSTER) to withstand extreme cold and fine, abrasive lunar glass dust [43:21], [44:41], [45:37].
4. Chandrayaan-3 and the Search for Ice
- Historic Landing: India’s ISRO became the first agency to land a spacecraft (Vikram lander and Pragyan rover) near the lunar South Pole on a budget of ~$75 million [01:13:12], [01:17:28].
- Surface Composition: In-situ testing detected elements like aluminum, titanium, iron, calcium, oxygen, and sulfur in the polar regolith [01:19:12], [01:19:21].
- Where Is the Water? The rover found no immediate surface ice or hydrogen in the top layer [01:19:43], [01:23:57]. However, thermal probes revealed that while surface temperatures reached ~60°C, temperatures plunged down to -10°C just 8 cm below the surface, showing that lunar regolith acts as an insulator and suggesting water ice is buried underneath [01:24:25], [01:25:03].
-
What happened, Moon Mission?
After watching the video, I am thinking, we should land a Starship in a deep crater and unload the Lunar Boring Machines sooner rather than later. Bore an opening to the massive lava tubes, mine the water ice that covers the floor of the lava tube, and build the habitat.??
https://www.youtube.com/watch?v=n-nUKSLPw6c
If we are actually planning to stay on the Moon, we need the protection of a hundred meters of regolith. And the water ice to stay alive…
‘I was thinking that for years…’Prompt:
Video Link
Summarize and list the key pointsGemini Said:
This video by Astrum Extra, titled “Exactly How We’re Going to Colonise the Moon,” is a compilation discussing human return to the Moon, lunar science, and recent exploration missions.Video Summary
The video explores humanity’s ongoing efforts and technical strategies to set up permanent bases on the Moon. It details how satellite mappers (like NASA’s LRO and South Korea’s Danuri/ShadowCam) identify crucial lunar resources and shelter sites, examines the test results and mission progression of NASA’s Artemis program (from Artemis 1 through Artemis 4), and reviews the findings of India’s Chandrayaan-3 mission regarding the search for water ice at the lunar South Pole [00:51], [08:41], [13:58], [01:13:04].
Key Takeaways & Points
1. Lunar Geology & Natural Resources
- Pit Craters & Lava Tubes: The Lunar Reconnaissance Orbiter (LRO) discovered pit craters over 100 meters deep that lead to subterranean lava tube cave systems [02:34], [03:06]. These offer natural protection from lethal solar/cosmic radiation and meteorites, serving as ideal shelter locations for human habitats [03:53], [04:16].
- Lunar Water Cycle: Trace amounts of water exist in the surface regolith and shift in a subtle cycle driven by temperature changes throughout the lunar day [04:41], [05:11].
- Permanently Shadowed Regions (PSRs): Polar craters shielded from direct sunlight reach temperatures as low as -250°C, making them the coldest measured places in the solar system [05:54], [06:46]. These “cold traps” host locked reserves of water ice along with carbon dioxide, carbon monoxide, and nitrogen compounds [07:04], [07:23].
2. Mapping and Imaging Advancements
- ShadowCam (Danuri Orbiter): Developed by NASA and carried aboard South Korea’s KPLO (Danuri), ShadowCam features 200-times greater light sensitivity than LRO cameras, allowing scientists to peer deep into shadowed crater interiors like Shackleton Crater to inspect for surface ice deposits [08:41], [09:08], [09:23].
3. The Artemis Program Milestones & Challenges
- Artemis 1 (Uncrewed Flight Test): Successfully launched aboard the SLS rocket in late 2022, placing the Orion capsule into a distant retrograde orbit around the Moon and testing key autonomous navigation, deep-space life support systems, and atmospheric re-entry [15:38], [21:43], [26:06].
- Anomalies Identified: Post-flight inspections revealed heat shield erosion (AVcoat material charring/chipping unexpectedly during re-entry) and minor helium/propulsion system leaks [35:52], [36:08], [01:06:07].
- Artemis 2 (Crewed Flyby): Designed as a 10-day mission carrying four astronauts (Reed Wiseman, Victor Glover, Christina Koch, and Jeremy Hansen) to perform flybys of the Moon, testing human systems, optical laser communication (O2O), and radiation exposures in deep space [29:43], [50:23], [53:49], [55:55].
- Artemis 3 & 4 Adjustments: Artemis 3 was shifted to a low-Earth orbit docking test (similar to Apollo 9) to lower technical risk, targeting the actual crewed lunar landing at the South Pole for Artemis 4 [38:32], [39:33], [41:51].
- Next-Gen Suits & Tools: Astronauts will use modern Axiom Space suits (built with Prada) and specialized instruments (like DUSTER) to withstand extreme cold and fine, abrasive lunar glass dust [43:21], [44:41], [45:37].
4. Chandrayaan-3 and the Search for Ice
- Historic Landing: India’s ISRO became the first agency to land a spacecraft (Vikram lander and Pragyan rover) near the lunar South Pole on a budget of ~$75 million [01:13:12], [01:17:28].
- Surface Composition: In-situ testing detected elements like aluminum, titanium, iron, calcium, oxygen, and sulfur in the polar regolith [01:19:12], [01:19:21].
- Where Is the Water? The rover found no immediate surface ice or hydrogen in the top layer [01:19:43], [01:23:57]. However, thermal probes revealed that while surface temperatures reached ~60°C, temperatures plunged down to -10°C just 8 cm below the surface, showing that lunar regolith acts as an insulator and suggesting water ice is buried underneath [01:24:25], [01:25:03].
-
What happened, Moon Mission?
After watching the video, I am thinking, we should land a Starship in a deep crater and unload the Lunar Boring Machines sooner rather than later. Bore an opening to the massive lava tubes, mine the water ice that covers the floor of the lava tube, and build the habitat.??
https://www.youtube.com/watch?v=n-nUKSLPw6c
If we are actually planning to stay on the Moon, we need the protection of a hundred meters of regolith. And the water ice to stay alive…
‘I was thinking that for years…’Prompt:
Video Link
Summarize and list the key pointsGemini Said:
This video by Astrum Extra, titled “Exactly How We’re Going to Colonise the Moon,” is a compilation discussing human return to the Moon, lunar science, and recent exploration missions.Video Summary
The video explores humanity’s ongoing efforts and technical strategies to set up permanent bases on the Moon. It details how satellite mappers (like NASA’s LRO and South Korea’s Danuri/ShadowCam) identify crucial lunar resources and shelter sites, examines the test results and mission progression of NASA’s Artemis program (from Artemis 1 through Artemis 4), and reviews the findings of India’s Chandrayaan-3 mission regarding the search for water ice at the lunar South Pole [00:51], [08:41], [13:58], [01:13:04].
Key Takeaways & Points
1. Lunar Geology & Natural Resources
- Pit Craters & Lava Tubes: The Lunar Reconnaissance Orbiter (LRO) discovered pit craters over 100 meters deep that lead to subterranean lava tube cave systems [02:34], [03:06]. These offer natural protection from lethal solar/cosmic radiation and meteorites, serving as ideal shelter locations for human habitats [03:53], [04:16].
- Lunar Water Cycle: Trace amounts of water exist in the surface regolith and shift in a subtle cycle driven by temperature changes throughout the lunar day [04:41], [05:11].
- Permanently Shadowed Regions (PSRs): Polar craters shielded from direct sunlight reach temperatures as low as -250°C, making them the coldest measured places in the solar system [05:54], [06:46]. These “cold traps” host locked reserves of water ice along with carbon dioxide, carbon monoxide, and nitrogen compounds [07:04], [07:23].
2. Mapping and Imaging Advancements
- ShadowCam (Danuri Orbiter): Developed by NASA and carried aboard South Korea’s KPLO (Danuri), ShadowCam features 200-times greater light sensitivity than LRO cameras, allowing scientists to peer deep into shadowed crater interiors like Shackleton Crater to inspect for surface ice deposits [08:41], [09:08], [09:23].
3. The Artemis Program Milestones & Challenges
- Artemis 1 (Uncrewed Flight Test): Successfully launched aboard the SLS rocket in late 2022, placing the Orion capsule into a distant retrograde orbit around the Moon and testing key autonomous navigation, deep-space life support systems, and atmospheric re-entry [15:38], [21:43], [26:06].
- Anomalies Identified: Post-flight inspections revealed heat shield erosion (AVcoat material charring/chipping unexpectedly during re-entry) and minor helium/propulsion system leaks [35:52], [36:08], [01:06:07].
- Artemis 2 (Crewed Flyby): Designed as a 10-day mission carrying four astronauts (Reed Wiseman, Victor Glover, Christina Koch, and Jeremy Hansen) to perform flybys of the Moon, testing human systems, optical laser communication (O2O), and radiation exposures in deep space [29:43], [50:23], [53:49], [55:55].
- Artemis 3 & 4 Adjustments: Artemis 3 was shifted to a low-Earth orbit docking test (similar to Apollo 9) to lower technical risk, targeting the actual crewed lunar landing at the South Pole for Artemis 4 [38:32], [39:33], [41:51].
- Next-Gen Suits & Tools: Astronauts will use modern Axiom Space suits (built with Prada) and specialized instruments (like DUSTER) to withstand extreme cold and fine, abrasive lunar glass dust [43:21], [44:41], [45:37].
4. Chandrayaan-3 and the Search for Ice
- Historic Landing: India’s ISRO became the first agency to land a spacecraft (Vikram lander and Pragyan rover) near the lunar South Pole on a budget of ~$75 million [01:13:12], [01:17:28].
- Surface Composition: In-situ testing detected elements like aluminum, titanium, iron, calcium, oxygen, and sulfur in the polar regolith [01:19:12], [01:19:21].
- Where Is the Water? The rover found no immediate surface ice or hydrogen in the top layer [01:19:43], [01:23:57]. However, thermal probes revealed that while surface temperatures reached ~60°C, temperatures plunged down to -10°C just 8 cm below the surface, showing that lunar regolith acts as an insulator and suggesting water ice is buried underneath [01:24:25], [01:25:03].
-
What happened, Moon Mission?
After watching the video, I am thinking, we should land a Starship in a deep crater and unload the Lunar Boring Machines sooner rather than later. Bore an opening to the massive lava tubes, mine the water ice that covers the floor of the lava tube, and build the habitat.??
https://www.youtube.com/watch?v=n-nUKSLPw6c
If we are actually planning to stay on the Moon, we need the protection of a hundred meters of regolith. And the water ice to stay alive…
‘I was thinking that for years…’Prompt:
Video Link
Summarize and list the key pointsGemini Said:
This video by Astrum Extra, titled “Exactly How We’re Going to Colonise the Moon,” is a compilation discussing human return to the Moon, lunar science, and recent exploration missions.Video Summary
The video explores humanity’s ongoing efforts and technical strategies to set up permanent bases on the Moon. It details how satellite mappers (like NASA’s LRO and South Korea’s Danuri/ShadowCam) identify crucial lunar resources and shelter sites, examines the test results and mission progression of NASA’s Artemis program (from Artemis 1 through Artemis 4), and reviews the findings of India’s Chandrayaan-3 mission regarding the search for water ice at the lunar South Pole [00:51], [08:41], [13:58], [01:13:04].
Key Takeaways & Points
1. Lunar Geology & Natural Resources
- Pit Craters & Lava Tubes: The Lunar Reconnaissance Orbiter (LRO) discovered pit craters over 100 meters deep that lead to subterranean lava tube cave systems [02:34], [03:06]. These offer natural protection from lethal solar/cosmic radiation and meteorites, serving as ideal shelter locations for human habitats [03:53], [04:16].
- Lunar Water Cycle: Trace amounts of water exist in the surface regolith and shift in a subtle cycle driven by temperature changes throughout the lunar day [04:41], [05:11].
- Permanently Shadowed Regions (PSRs): Polar craters shielded from direct sunlight reach temperatures as low as -250°C, making them the coldest measured places in the solar system [05:54], [06:46]. These “cold traps” host locked reserves of water ice along with carbon dioxide, carbon monoxide, and nitrogen compounds [07:04], [07:23].
2. Mapping and Imaging Advancements
- ShadowCam (Danuri Orbiter): Developed by NASA and carried aboard South Korea’s KPLO (Danuri), ShadowCam features 200-times greater light sensitivity than LRO cameras, allowing scientists to peer deep into shadowed crater interiors like Shackleton Crater to inspect for surface ice deposits [08:41], [09:08], [09:23].
3. The Artemis Program Milestones & Challenges
- Artemis 1 (Uncrewed Flight Test): Successfully launched aboard the SLS rocket in late 2022, placing the Orion capsule into a distant retrograde orbit around the Moon and testing key autonomous navigation, deep-space life support systems, and atmospheric re-entry [15:38], [21:43], [26:06].
- Anomalies Identified: Post-flight inspections revealed heat shield erosion (AVcoat material charring/chipping unexpectedly during re-entry) and minor helium/propulsion system leaks [35:52], [36:08], [01:06:07].
- Artemis 2 (Crewed Flyby): Designed as a 10-day mission carrying four astronauts (Reed Wiseman, Victor Glover, Christina Koch, and Jeremy Hansen) to perform flybys of the Moon, testing human systems, optical laser communication (O2O), and radiation exposures in deep space [29:43], [50:23], [53:49], [55:55].
- Artemis 3 & 4 Adjustments: Artemis 3 was shifted to a low-Earth orbit docking test (similar to Apollo 9) to lower technical risk, targeting the actual crewed lunar landing at the South Pole for Artemis 4 [38:32], [39:33], [41:51].
- Next-Gen Suits & Tools: Astronauts will use modern Axiom Space suits (built with Prada) and specialized instruments (like DUSTER) to withstand extreme cold and fine, abrasive lunar glass dust [43:21], [44:41], [45:37].
4. Chandrayaan-3 and the Search for Ice
- Historic Landing: India’s ISRO became the first agency to land a spacecraft (Vikram lander and Pragyan rover) near the lunar South Pole on a budget of ~$75 million [01:13:12], [01:17:28].
- Surface Composition: In-situ testing detected elements like aluminum, titanium, iron, calcium, oxygen, and sulfur in the polar regolith [01:19:12], [01:19:21].
- Where Is the Water? The rover found no immediate surface ice or hydrogen in the top layer [01:19:43], [01:23:57]. However, thermal probes revealed that while surface temperatures reached ~60°C, temperatures plunged down to -10°C just 8 cm below the surface, showing that lunar regolith acts as an insulator and suggesting water ice is buried underneath [01:24:25], [01:25:03].
-
Who Thought It Was a Good Idea to Let Me Drive a Lunar Rover?
They actually let me drive Australia’s Lunar Rover… I still don’t know why.
This all happened at AusSpace 2025 — Australia’s biggest space tech event — where I somehow found myself behind the controls of ROO-VER, the lunar rover being built to drive on the Moon.
Not only did I get to drive the thing, but I also sat down with one of the engineers building it... and then, somehow, ended up interviewing former Prime Minister Scott Morrison (?!). That’s not a sentence I ever thought I’d write.
This trip was insane, full of space tech, mad energy, a few surprises — and, of course, one very confused engineer trying to explain to me how to drive a robot made for the Moon.
So… did I crash it? Did Scott Morrison talk about space chickens? Did I get kicked out of AusSpace?
There’s only one way to find out 👇
#LunarRover #AusSpace2025 #SpaceAustralia #ROOVER #Engineering #MoonMission #SpaceExploration #Astroworx #ScottMorrison #Science #Tech #STEM #Innovation #FutureTech #Robotics #NASA #SpaceX #Australia #BehindTheScenes #Trending #YouTubeShorts #Vlog #CrazyIdeas #WildRide
YouTube: https://youtu.be/hrkSaIBE7dY
-
Who Thought It Was a Good Idea to Let Me Drive a Lunar Rover?
They actually let me drive Australia’s Lunar Rover… I still don’t know why.
This all happened at AusSpace 2025 — Australia’s biggest space tech event — where I somehow found myself behind the controls of ROO-VER, the lunar rover being built to drive on the Moon.
Not only did I get to drive the thing, but I also sat down with one of the engineers building it... and then, somehow, ended up interviewing former Prime Minister Scott Morrison (?!). That’s not a sentence I ever thought I’d write.
This trip was insane, full of space tech, mad energy, a few surprises — and, of course, one very confused engineer trying to explain to me how to drive a robot made for the Moon.
So… did I crash it? Did Scott Morrison talk about space chickens? Did I get kicked out of AusSpace?
There’s only one way to find out 👇
#LunarRover #AusSpace2025 #SpaceAustralia #ROOVER #Engineering #MoonMission #SpaceExploration #Astroworx #ScottMorrison #Science #Tech #STEM #Innovation #FutureTech #Robotics #NASA #SpaceX #Australia #BehindTheScenes #Trending #YouTubeShorts #Vlog #CrazyIdeas #WildRide
YouTube: https://youtu.be/hrkSaIBE7dY
-
Who Thought It Was a Good Idea to Let Me Drive a Lunar Rover?
They actually let me drive Australia’s Lunar Rover… I still don’t know why.
This all happened at AusSpace 2025 — Australia’s biggest space tech event — where I somehow found myself behind the controls of ROO-VER, the lunar rover being built to drive on the Moon.
Not only did I get to drive the thing, but I also sat down with one of the engineers building it... and then, somehow, ended up interviewing former Prime Minister Scott Morrison (?!). That’s not a sentence I ever thought I’d write.
This trip was insane, full of space tech, mad energy, a few surprises — and, of course, one very confused engineer trying to explain to me how to drive a robot made for the Moon.
So… did I crash it? Did Scott Morrison talk about space chickens? Did I get kicked out of AusSpace?
There’s only one way to find out 👇
#LunarRover #AusSpace2025 #SpaceAustralia #ROOVER #Engineering #MoonMission #SpaceExploration #Astroworx #ScottMorrison #Science #Tech #STEM #Innovation #FutureTech #Robotics #NASA #SpaceX #Australia #BehindTheScenes #Trending #YouTubeShorts #Vlog #CrazyIdeas #WildRide
YouTube: https://youtu.be/hrkSaIBE7dY
-
Who Thought It Was a Good Idea to Let Me Drive a Lunar Rover?
They actually let me drive Australia’s Lunar Rover… I still don’t know why.
This all happened at AusSpace 2025 — Australia’s biggest space tech event — where I somehow found myself behind the controls of ROO-VER, the lunar rover being built to drive on the Moon.
Not only did I get to drive the thing, but I also sat down with one of the engineers building it... and then, somehow, ended up interviewing former Prime Minister Scott Morrison (?!). That’s not a sentence I ever thought I’d write.
This trip was insane, full of space tech, mad energy, a few surprises — and, of course, one very confused engineer trying to explain to me how to drive a robot made for the Moon.
So… did I crash it? Did Scott Morrison talk about space chickens? Did I get kicked out of AusSpace?
There’s only one way to find out 👇
#LunarRover #AusSpace2025 #SpaceAustralia #ROOVER #Engineering #MoonMission #SpaceExploration #Astroworx #ScottMorrison #Science #Tech #STEM #Innovation #FutureTech #Robotics #NASA #SpaceX #Australia #BehindTheScenes #Trending #YouTubeShorts #Vlog #CrazyIdeas #WildRide
YouTube: https://youtu.be/hrkSaIBE7dY
-
Who Thought It Was a Good Idea to Let Me Drive a Lunar Rover?
They actually let me drive Australia’s Lunar Rover… I still don’t know why.
This all happened at AusSpace 2025 — Australia’s biggest space tech event — where I somehow found myself behind the controls of ROO-VER, the lunar rover being built to drive on the Moon.
Not only did I get to drive the thing, but I also sat down with one of the engineers building it... and then, somehow, ended up interviewing former Prime Minister Scott Morrison (?!). That’s not a sentence I ever thought I’d write.
This trip was insane, full of space tech, mad energy, a few surprises — and, of course, one very confused engineer trying to explain to me how to drive a robot made for the Moon.
So… did I crash it? Did Scott Morrison talk about space chickens? Did I get kicked out of AusSpace?
There’s only one way to find out 👇
#LunarRover #AusSpace2025 #SpaceAustralia #ROOVER #Engineering #MoonMission #SpaceExploration #Astroworx #ScottMorrison #Science #Tech #STEM #Innovation #FutureTech #Robotics #NASA #SpaceX #Australia #BehindTheScenes #Trending #YouTubeShorts #Vlog #CrazyIdeas #WildRide
YouTube: https://youtu.be/hrkSaIBE7dY