I've just explained the gas earlier on.
No you didn't. You avoided it because you know you can't explain without admitting rockets work in a vacuum.
You said you would make a diagram, and then never did.
Here the issue is again:
You have a simple rocket that looks like this:

The black is the body of the rocket: Note that it is open at one end.
The red is the high pressure gas inside the rocket.
Now, looking at the left edge of the rocket, it is pushing against the high pressure gas next to it. Can it move as it has this gas to push off? Or can it not, because it would just push against the gas and so on until it got to the other side where there is nothing to push against?
Before answering, we are also looking at the gas at the right edge. It is pushing against the high pressure gas next to it. Can it move as it has this gas to push off? Or can it not, because it would just push against the gas and so on until it got to the other side where there is nothing to push against?
Note: These are of the same form. Either both can move, or neither can.
Which is it?
Can the gas leave the rocket with the rocket being pushed away?
Or are they stuck together because there is nothing to push against?
Care to actually try explaining it this time?
You wish to claim that an object needs leverage/resistance to move. Well the only thing for the gas to use is the rocket, or the gas between the rocket and itself (which the rocket can also use).
So does the gas push the rocket away, using it as leverage, or does the gas stay in the rocket?
There is no alternative.
If you wish to disagree you need to be able to explain why.
Why should the gas be able to leave the rocket when it has nothing to push against (other than the rocket), while the rocket can't leave the gas?
The hair is has air all around it so it stays up.
If i jump, i have air all around me - should i stay up?
No because your dense mass is pushing into the atmosphere and that atmosphere directly above you is also stacked on your head and shoulders.
Your feet resist the crush by using the solid ground as your foundation.
The feet aren't on solid ground.
He has jumped. He is in the air.
There is literally no reason for the air to push some objects down and not others.
Your model is pure nonsense.
An inverted way to look at what atmosphere is doing.
Nope, just like what the atmosphere is ACTUALLY doing, where it pushes objects immersed in it upwards, just like the atmosphere.
Air is displaced in all directions but you are equalised in horizontal directions and are not equalised in a vertical.
That is right. The pressure below you is higher, meaning you are pushed up.
Again, there is no reason to be pushed down.
If you stand up your feet against solid ground
We are talking about an object in the air.
Why should that get pushed down? It is surrounded by air all around, and the lower the air is, the higher the pressure.
I think I've put a lot of effort into explaining.
No, like so often, you repeatedly avoided it.
You are yet to talk about an object in the air. Instead you repeatedly referred to an object on the ground.
Try again.
What do you know is proven in terms of physically knowing, not just a reliance on what you're told, in terms of what I'm arguing.
Let me know and I'll grill you on it.
We have already been over this.
You tried to grill me and failed miserably.
What makes you think you will do better now?
The real thing is what do you know is proven in terms of physically knowing, not juts a reliance on pure fantasy?
No afraid. I just suspect I'd be banned almost immediately when they can't put me down.
You mean after you continue to spam the same refuted nonsense and fail to address the issues they raised, instead claiming you already have or that they just don't understand?
You have already been refuted with all the nonsense you have brought up here. What makes you think it will be different there?
Now bearing in mind that the stacked atmosphere is putting around 15 lb's per square inch of pressure onto anything pushing up against it, you can understand that one hair point is hardly going to have much pressure against its point....right?
And thanks for admitting that if it was due to pressure, it would be entirely dependent upon the horizontal area.
That if you take a long, thin rod and have it vertical, there will be very little pressure pushing down on it. But if you were to lay it sideways, then there will be push more pressure pushing down on it.
Now this means that if denpressure was the cause of an object's weight, that would result in very different weights for the same object in the same location, in the same atmosphere. But this is never observed.
Thank's for once again refuting your own model.
And also note, that pressure is IN ALL DIRECTIONS! Not down, in every direction.
That means if you take an object in mid air, it is being pushed from all directions, roughly equally. In calm air there is a slight imbalance as the pressure increases with decreasing height, meaning the object is being pushed up more than down.
This can also be used to hold things together, for example, a suction cap against a wall, where there is no air between them so the air pushes the suction cap into the wall (and the air on the other side of the wall pushes it into the suction cap). Note that this isn't pushing down, it pushes into whatever direction the wall is, which can be up or sideways as well as down.
So air pressure is clearly not what is pushing people down.
Now how about you stop bringing up your failed model in general and just deal with the issue at hand.
You have compressed gas inside a tube, open at one end. What happens?
Does it all stay together or does the tube and gas push off each other causing them to each more away from one another.