you don't give a damn if your model works and matches reality, you will just ignore the problems.
It doesn't have any problems and certainly none that you can bring up when you have no clue what you're arguing against.
Here is the list again:
Why denspressure creates weight in the first place, specifically the directionality of it.
Why some things are pushed down and others are pushed up.
Why weight is proportional to mass (which can be measured due to inertia), rather than area or volume.
Why objects with the same crystal lattice (e.g. FCC) and thus the same proportion of voids have completely different densities.
Why evacuating the air from inside a sealed vessel makes it weigh less even though it displaces more atmosphere.
Why putting things in water results in a reduction in weight not a gain.
Why you aren't pushed against a cliff.
Why you continue moving when force is no longer applied (including your example where you are moving up a slope at a constant speed).
Why inertia and by extension the centrifugal force still works in a vacuum.
Why your acceleration in free fall (i.e. when air resistance is insignificant) remains the same regardless of pressure.
Why your weight, excluding the small contribution from buoyancy, remains the same regardless of pressure.
How a fluid filled barometer works.
Why the void appears in the first place when you invert the tube so it is upright, while it is not there when it is upside down.
Why the height of the column above the surface of the reservoir remains constant, regardless of the angle of the tube and the height of the tube, assuming it started upside down with no void and has a material of a given density and no air was allowed in and the tube itself is not limiting the height. It doesn't even depend on the shape of the tube.
Why a different fluid results in a completely different height.
Why a liquid to gas phase transition requires so much energy input without any change in temperature and results in a massive expansion.
Brownian motion.
PV=nRT
Sure seems like a lot of problems.
You are yet to rationally address any of them.
At best you offer a few contradictory "explanations".
Isn't a change in acceleration a deceleration, because surely a change in acceleration cannot be ACCELERATION,c an it?
No, a change in acceleration would be jerk.
Deceleration is just another word for acceleration, typically used when you are limited to 1D, and the aceleration is negative or in opposite direction to motion, used in place of retardation.
Acceleration is change. It can never ever be constant no matter how it's attempted to be dressed up.
We have been through this before.
You have admitted change can be constant, as velocity is change, yet that can be constant.
You need a better excuse than that.
Acceleration, just like velocity, is a rate.
That can be constant.
This is a fact, no matter how much you try and lie about it or dress it up.
If you go from zero to 10 mph then you've accelerated and some stage to get there, whether you did it in 10 minutes or 10 seconds, you must accelerate to achieve it.
Yes, that is true, now lets say it took 10 s.
After the first second you were travelling at 1 mph, after the second you were travelling at 2 mph, and so on.
This means your rate of acceleration was constant at 1 mph/s.
However you do not have to keep acceleration to reach it, you can keep a constant velocity in between acceleration.
Yes you do.
If you stop accelerating before you reach it you wont reach it.
The only way to reach 10 mph is to accelerate to 10 mph.
You can accelerate to 1 mph and hold that 1 mph for 10 seconds or a minute or whatever but it immediately becomes a constant velocity and not anything else.
And that constant velocity is merely changing position at a constant rate.
If you hold a speed/mph/kmh or m/s or whatever then you are not changing anything in terms of your movement
Again, you are. You are changing your position.