11.2 km/s or Mach 34 is what it take to leave orbit.Wow!
Could you imagine something like that flying at you as a fighter pilot?
What more would it take to actually leave our atmosphere cause it looked like it was pretty damn close?
11.2 km/s or Mach 34 is what it take to leave orbit.Wow!
Could you imagine something like that flying at you as a fighter pilot?
What more would it take to actually leave our atmosphere cause it looked like it was pretty damn close?
That was awesome.
Do you have to have a permit to launch something like that I wonder?
You call the "hydro company" when a kite gets stuck in some wires?I was wondering that too. Or do you have to call the airport to ensure no traffic is passing by there? Better safe than sorry I guess lol.
What would be interesting though is if they got it stuck in orbit. It did not go quite high enough, but don't think it was all that far from there. If you get a kite stuck in electrical wires you can call the hydro company, if you get a rocket stuck in orbit, who do you call, Nasa?
You'd file a NOTAM with the FAA so they could advise pilots to stay clear.Something tells me, if you apply for a permit, you ain't launching anything.
Awesome video.
These guys are a little more than amature rocket hobbyists. The credits include "Chuck Rogers: Simulation and load calculation", who appears to work at the U.S. Air Force Flight Test Center.
This geometry is formed with a foam mandrel that is held in place with a steel pipe during casting. After the propellant is cured, Acetone is used to melt the foam and the mandrel is removed.
I was wondering that too. Or do you have to call the airport to ensure no traffic is passing by there? Better safe than sorry I guess lol.
What would be interesting though is if they got it stuck in orbit. It did not go quite high enough, but don't think it was all that far from there. If you get a kite stuck in electrical wires you can call the hydro company, if you get a rocket stuck in orbit, who do you call, Nasa?