SpaceX and Cursor are now working closely together to create the world’s best coding and knowledge work AI.
The combination of Cursor’s leading product and distribution to expert software engineers with SpaceX’s million H100 equivalent Colossus training supercomputer will allow us to build the world’s most useful models.
Cursor has also given SpaceX the right to acquire Cursor later this year for $60 billion or pay $10 billion for our work together.
SpaceX and Cursor are now working closely together to create the world’s best coding and…
Successfully flying around the Moon and returning to Earth in a historic 10-day journey? Easy-peasy for NASA’s Artemis 2 astronauts. Now the really hard part that everybody on Earth can relate to begins: sorting out their phone’s camera roll.
Mission specialist Christina Koch and Commander Reid Wiseman had already stunned the public with their epic Earth photos taken from the Orion spacecraft’s main hatch. While they shared a gallery of shots taken with a Nikon DSLR and GoPro action camera, it was their “selfies,” shot with the iPhone 17 Pro Max’s front-facing camera, that captured everyone’s imagination.
How do you top that? On Sunday, Wiseman shared a video of a view that no human has ever shared before. No big deal, it’s just a “cell phone video of Earthset,” showing our humble Blue Planet setting behind the Moon.
See iPhone 17 Pro Max at Apple.com
Only one chance in this lifetime…
Like watching sunset at the beach from the most foreign seat in the cosmos, I couldn’t resist a cell phone video of Earthset. You can hear the shutter on the Nikon as @Astro_Christina is hammering away on 3-shot brackets and capturing those… pic.twitter.com/8aWnaFJ69c
— Reid Wiseman (@astro_reid) April 19, 2026
“I could barely see the Moon through the docking hatch window but the iPhone was the perfect size to catch the view…this is uncropped, uncut with 8x zoom which is quite comparable to the view of the human eye,” Wiseman said in a post on X. “Enjoy.”
The footage immediately started going viral as jaws dropped to the floor, and likes, reposts, and comments poured in from around the world.
The video is breaking the internet for good reason—it’s as authentic as it gets. The footage isn’t edited and there’s no music. There’s zero polish to it. Just an astronaut zooming in on the Moon through Orion’s window, blurry autofocusing and all, as the iPhone 17 Pro Max’s 8x optical-quality telephoto locks onto the celestial bodies.
Wiseman’s honest reaction only added to the moment. “Would you look at that, man? Wowww. Dude… No wayy. Fin,” he said before the view of Earth disappeared behind the lunar surface.
Dude, we would have reacted in the same exact way.
#JawDropping #iPhone #Video #Earth #Setting #Moon #Rightfully #Breaking #InternetApple,Artemis 2,iPhone,moon,NASA,Space">Jaw-Dropping iPhone Video of Earth Setting Behind the Moon Is Rightfully Breaking the Internet
Successfully flying around the Moon and returning to Earth in a historic 10-day journey? Easy-peasy for NASA’s Artemis 2 astronauts. Now the really hard part that everybody on Earth can relate to begins: sorting out their phone’s camera roll.
Mission specialist Christina Koch and Commander Reid Wiseman had already stunned the public with their epic Earth photos taken from the Orion spacecraft’s main hatch. While they shared a gallery of shots taken with a Nikon DSLR and GoPro action camera, it was their “selfies,” shot with the iPhone 17 Pro Max’s front-facing camera, that captured everyone’s imagination.
How do you top that? On Sunday, Wiseman shared a video of a view that no human has ever shared before. No big deal, it’s just a “cell phone video of Earthset,” showing our humble Blue Planet setting behind the Moon.
See iPhone 17 Pro Max at Apple.com
Only one chance in this lifetime…
Like watching sunset at the beach from the most foreign seat in the cosmos, I couldn’t resist a cell phone video of Earthset. You can hear the shutter on the Nikon as @Astro_Christina is hammering away on 3-shot brackets and capturing those… pic.twitter.com/8aWnaFJ69c
— Reid Wiseman (@astro_reid) April 19, 2026
“I could barely see the Moon through the docking hatch window but the iPhone was the perfect size to catch the view…this is uncropped, uncut with 8x zoom which is quite comparable to the view of the human eye,” Wiseman said in a post on X. “Enjoy.”
The footage immediately started going viral as jaws dropped to the floor, and likes, reposts, and comments poured in from around the world.
The video is breaking the internet for good reason—it’s as authentic as it gets. The footage isn’t edited and there’s no music. There’s zero polish to it. Just an astronaut zooming in on the Moon through Orion’s window, blurry autofocusing and all, as the iPhone 17 Pro Max’s 8x optical-quality telephoto locks onto the celestial bodies.
Wiseman’s honest reaction only added to the moment. “Would you look at that, man? Wowww. Dude… No wayy. Fin,” he said before the view of Earth disappeared behind the lunar surface.
Dude, we would have reacted in the same exact way.
#JawDropping #iPhone #Video #Earth #Setting #Moon #Rightfully #Breaking #InternetApple,Artemis 2,iPhone,moon,NASA,Space
Successfully flying around the Moon and returning to Earth in a historic 10-day journey? Easy-peasy for NASA’s Artemis 2 astronauts. Now the really hard part that everybody on Earth can relate to begins: sorting out their phone’s camera roll.
Mission specialist Christina Koch and Commander Reid Wiseman had already stunned the public with their epic Earth photos taken from the Orion spacecraft’s main hatch. While they shared a gallery of shots taken with a Nikon DSLR and GoPro action camera, it was their “selfies,” shot with the iPhone 17 Pro Max’s front-facing camera, that captured everyone’s imagination.
How do you top that? On Sunday, Wiseman shared a video of a view that no human has ever shared before. No big deal, it’s just a “cell phone video of Earthset,” showing our humble Blue Planet setting behind the Moon.
See iPhone 17 Pro Max at Apple.com
Only one chance in this lifetime…
Like watching sunset at the beach from the most foreign seat in the cosmos, I couldn’t resist a cell phone video of Earthset. You can hear the shutter on the Nikon as @Astro_Christina is hammering away on 3-shot brackets and capturing those… pic.twitter.com/8aWnaFJ69c
— Reid Wiseman (@astro_reid) April 19, 2026
“I could barely see the Moon through the docking hatch window but the iPhone was the perfect size to catch the view…this is uncropped, uncut with 8x zoom which is quite comparable to the view of the human eye,” Wiseman said in a post on X. “Enjoy.”
The footage immediately started going viral as jaws dropped to the floor, and likes, reposts, and comments poured in from around the world.
The video is breaking the internet for good reason—it’s as authentic as it gets. The footage isn’t edited and there’s no music. There’s zero polish to it. Just an astronaut zooming in on the Moon through Orion’s window, blurry autofocusing and all, as the iPhone 17 Pro Max’s 8x optical-quality telephoto locks onto the celestial bodies.
Wiseman’s honest reaction only added to the moment. “Would you look at that, man? Wowww. Dude… No wayy. Fin,” he said before the view of Earth disappeared behind the lunar surface.
Dude, we would have reacted in the same exact way.
Successfully flying around the Moon and returning to Earth in a historic 10-day journey? Easy-peasy for NASA’s Artemis 2 astronauts. Now the really hard part that everybody on Earth can relate to begins: sorting out their phone’s camera roll.
Mission specialist Christina Koch and Commander Reid Wiseman had already stunned the public with their epic Earth photos taken from the Orion spacecraft’s main hatch. While they shared a gallery of shots taken with a Nikon DSLR and GoPro action camera, it was their “selfies,” shot with the iPhone 17 Pro Max’s front-facing camera, that captured everyone’s imagination.
How do you top that? On Sunday, Wiseman shared a video of a view that no human has ever shared before. No big deal, it’s just a “cell phone video of Earthset,” showing our humble Blue Planet setting behind the Moon.
See iPhone 17 Pro Max at Apple.com
Only one chance in this lifetime…
Like watching sunset at the beach from the most foreign seat in the cosmos, I couldn’t resist a cell phone video of Earthset. You can hear the shutter on the Nikon as @Astro_Christina is hammering away on 3-shot brackets and capturing those… pic.twitter.com/8aWnaFJ69c
— Reid Wiseman (@astro_reid) April 19, 2026
“I could barely see the Moon through the docking hatch window but the iPhone was the perfect size to catch the view…this is uncropped, uncut with 8x zoom which is quite comparable to the view of the human eye,” Wiseman said in a post on X. “Enjoy.”
The footage immediately started going viral as jaws dropped to the floor, and likes, reposts, and comments poured in from around the world.
The video is breaking the internet for good reason—it’s as authentic as it gets. The footage isn’t edited and there’s no music. There’s zero polish to it. Just an astronaut zooming in on the Moon through Orion’s window, blurry autofocusing and all, as the iPhone 17 Pro Max’s 8x optical-quality telephoto locks onto the celestial bodies.
Wiseman’s honest reaction only added to the moment. “Would you look at that, man? Wowww. Dude… No wayy. Fin,” he said before the view of Earth disappeared behind the lunar surface.
Dude, we would have reacted in the same exact way.
Successfully flying around the Moon and returning to Earth in a historic 10-day journey? Easy-peasy…
While the satellite separated from the launch vehicle and powered on, the altitude is too low to sustain operations with its on-board thruster technology and will de-orbited.
Bezos, for his part, posted a video of the landing on X without comment.
Today’s launch of AST SpaceMobile’s BlueBird 7 satellite aboard Blue Origin’s reusable New Glenn rocket was a partial success. The New Glenn touched down on its landing pad without incident, making it the second launch and landing for the first stage booster, and officially giving Jeff Bezos a reusable launch vehicle. Unfortunately for AST SpaceMobile, the mission was less successful. Its cell-tower-in-space was delivered to a lower orbit than expected by the second stage of the launch vehicle, rendering it functionally useless.
While the satellite separated from the launch vehicle and powered on, the altitude is too low to sustain operations with its on-board thruster technology and will de-orbited.
Bezos, for his part, posted a video of the landing on X without comment.
Today’s launch of AST SpaceMobile’s BlueBird 7 satellite aboard Blue Origin’s reusable New Glenn rocket was a partial success. The New Glenn touched down on its landing pad without incident, making it the second launch and landing for the first stage booster, and officially giving Jeff Bezos a reusable launch vehicle. Unfortunately for AST SpaceMobile, the mission was less successful. Its cell-tower-in-space was delivered to a lower orbit than expected by the second stage of the launch vehicle, rendering it functionally useless.
While the satellite separated from the launch vehicle and powered on, the altitude is too low to sustain operations with its on-board thruster technology and will de-orbited.
Bezos, for his part, posted a video of the landing on X without comment.
Today’s launch of AST SpaceMobile’s BlueBird 7 satellite aboard Blue Origin’s reusable New Glenn rocket…
Eye on Stars: Christina Aguilera’s Very Intimate Pictures Leak, Enrique Iglesias Bails On Britney Spears And Other Hollywood News (7 pics)
Raunchy Pictures of Christina Aguilera in Bed with Her Boyfriend for Sale2011 is not shaping…
Let’s use our car again, but this time we’ll get real numbers from the accelerometer in our smartphone. Say we start at a red light and then accelerate at 2 m/s2 (meters per second squared) for five seconds. From the equation above, Δv1 would be 2 x 5 = 10 m/s, so that’s our velocity. Now, after cruising for a while, we accelerate again at 1 m/s2 for five more seconds. Δv2 is then 1 x 5 = 5 m/s. Adding these two changes, our velocity is now 15 m/s. And so on.The only problem is that inertial measurement isn’t as accurate as the Doppler method over long periods, because small errors will keep accumulating. That means you need to recalibrate your system periodically using some other method.
Optical Navigation
On Earth, people have long navigated by the stars. In the northern hemisphere, just find Polaris. It’s called the North Star because Earth’s axis of rotation points right at it. That’s why it appears stationary, while the other stars seem to revolve around it. If you point a finger at Polaris you’ll be pointing north, and you can use that orientation to go in whatever direction you want.
Now, if you can measure the angle of Polaris above the horizon, you’ll also know your latitude. If the angle is 30 degrees, you’re at latitude 30 degrees. See, it’s easy. And once you can measure position, you just need to do it twice and record the time interval to find your velocity.
But celestial navigation works because we know how the Earth rotates, and that doesn’t help in a spacecraft. Oh well, can we just use the stars like you would use the cows on the side of the road? Nope. The stars are so far away, astronauts would need to travel for many, many generations to detect any shift in their position. Like the airplane flying over the sea, you’d seem to be stationary, even while traveling 25,000 mph.
But we can still use the basic idea. For optical navigation in space, a spacecraft can locate other objects in the solar system. By knowing the precise location of these objects (which change over time) and where they appear relative to the viewer, it’s possible to triangulate a position. And again, by taking multiple position measurements over time, you can calculate a velocity.
In the end, even though spaceships lack speedometers, it’s possible to track their speed indirectly with a little physics. But it’s just another example of how flying in space is really, totally different—and way more complicated—than driving or flying on Earth.
Let’s use our car again, but this time we’ll get real numbers from the accelerometer in our smartphone. Say we start at a red light and then accelerate at 2 m/s2 (meters per second squared) for five seconds. From the equation above, Δv1 would be 2 x 5 = 10 m/s, so that’s our velocity. Now, after cruising for a while, we accelerate again at 1 m/s2 for five more seconds. Δv2 is then 1 x 5 = 5 m/s. Adding these two changes, our velocity is now 15 m/s. And so on.
The only problem is that inertial measurement isn’t as accurate as the Doppler method over long periods, because small errors will keep accumulating. That means you need to recalibrate your system periodically using some other method.
Optical Navigation
On Earth, people have long navigated by the stars. In the northern hemisphere, just find Polaris. It’s called the North Star because Earth’s axis of rotation points right at it. That’s why it appears stationary, while the other stars seem to revolve around it. If you point a finger at Polaris you’ll be pointing north, and you can use that orientation to go in whatever direction you want.
Now, if you can measure the angle of Polaris above the horizon, you’ll also know your latitude. If the angle is 30 degrees, you’re at latitude 30 degrees. See, it’s easy. And once you can measure position, you just need to do it twice and record the time interval to find your velocity.
But celestial navigation works because we know how the Earth rotates, and that doesn’t help in a spacecraft. Oh well, can we just use the stars like you would use the cows on the side of the road? Nope. The stars are so far away, astronauts would need to travel for many, many generations to detect any shift in their position. Like the airplane flying over the sea, you’d seem to be stationary, even while traveling 25,000 mph.
But we can still use the basic idea. For optical navigation in space, a spacecraft can locate other objects in the solar system. By knowing the precise location of these objects (which change over time) and where they appear relative to the viewer, it’s possible to triangulate a position. And again, by taking multiple position measurements over time, you can calculate a velocity.
In the end, even though spaceships lack speedometers, it’s possible to track their speed indirectly with a little physics. But it’s just another example of how flying in space is really, totally different—and way more complicated—than driving or flying on Earth.
Let’s use our car again, but this time we’ll get real numbers from the accelerometer…

