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Why shooting a grenade to orbiter is so hard?

Why shooting a grenade to orbiter is so hard?





The fictional "Columbiad" could shoot a shell to the moon. The image is from Jules Verne's fictional novel "From the Earth to the Moon". 


Can movement continue forever?

If we are thinking about things that are larger than some quantum-size objects: the answer is no. And the reason for that thing is friction. When a thing like a grenade travels through the air, the ammunition transfers the kinetic energy to the air molecules. And that thing sucks the energy that is loaded into the grenade when it is left from the cannon. 

Another thing that is slowing the grenade or ammunition in the air is the vacuum behind the ammunition. And that thing would pull the projectile backward. So shooting the grenade to the orbiter is a very difficult thing.  Because of those slowing effects, the shell requires an extremely high punch that will break everything inside the shell. 

There is the possibility to make the grenade or other ammunition that flies farther than other grenades simply by denying the form of the vacuum behind the shell. That thing can be made, by making the channel through the shell. 

And that thing would remove the vacuum. There must be some kind of plate behind the shell that will drop away when the shell is leaving the pipe of the cannon. And the air that flows through the grenade denies that the vacuum cannot form.

What means "mirror-friction"? That means the energy travels from the environment to the object. Normally, energy travels out from the object to the air. But if the object has the minimum energy level, that means the energy would travel from the environment to the object. And the movement continues until the energy levels in the object are the same as its environment. 

So what is friction? Friction is the energy transfer from the higher energetic object to the lower energetic area. So there is the possibility that the zero-point energy will make the grenade or ammunition travel even around the Earth. Or maybe that thing would not work on Earth but if the object's energy level is lower than its environment the energy would start to travel from the environment to the shell. 

That object would travel through the atmosphere a very long way. The idea of the ammunition that can travel around the world is basing one simple thing. If that object has a minimum energy level the energy can travel to the object. So that thing is the reflecting the friction. But is that thing possible to make in real life? The thing is that the movement continues until the energy levels are stable. 


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