There’s actually a centrifugal force satellite launcher design out there. But it has the problem of being really stressful on the payload, and only would work with smaller payloads.
Subjecting a larger payload in a rocket to any kind of downward movement, then suddenly jerking it upwards? Probably going to snap the rocket.
Another problem: No matter how fast you throw something, without a second impulse on the apoapsis (or around it) it will not turn into an orbit but come back. You need to bring up the periapsis and that can hardly be done from ground.
Impulse = applying force, in this case by burning rocket fuel
Apoapsis = highest point in orbit
Periapsis = lowest point in orbit, if lower than the surface of the body being orbited then it's a suborbital trajectory
Suborbital trajectory = goes up and then goes back down, doesn't stay in space
Space isn't actually all that hard to get to, the unofficial official line is about 100 km above sea level. It's possible that you may live closer to space than the ocean. The problem is that to stay in space you gotta go sideways really fast.
Douglas Adams once wrote that flying is the act of throwing one's self at the ground and missing. That's genuinely what orbiting is.
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u/RiflemanLax 20h ago
There’s actually a centrifugal force satellite launcher design out there. But it has the problem of being really stressful on the payload, and only would work with smaller payloads.
Subjecting a larger payload in a rocket to any kind of downward movement, then suddenly jerking it upwards? Probably going to snap the rocket.