They are fundamentally different phenomenon and thus couldn't simply be the same reason, and yet again you dodge the issue.
We aren't talking about running at a high pressure hose, we are talking about the other side, where the water is being "drawn" in.
This is running towards the low pressure region with the high pressure pushing you towards it.
If you create a low pressure and trap it...how do you release it?
Again, I refer you to the Magdeburg hemispheres YOU brought up earlier.
I also refer you to your earlier statements about pressure.
You don't trap a low pressure, you don't release it.
Instead you remove pressure (note: not all pressure needs to be removed), and keep [high pressure] out.
You are contradicting yourself.
No, that would be you.
You are the one who makes a big deal about it always being high pressure going in.
That means you don't trap low pressure, you keep high pressure out.
It means you release low pressure, you let higher pressure in to equalise it.
If you need a simple analogy to understand it, imagine a room full of people. Now you force all of the people out of the room and close the door.
You haven't trapped emptiness in the room, you have merely kept people out of it.
When you open the door to let the people back in, you aren't letting the emptiness out, you are letting people back in.
There is no contradiction on my part.
However yet again, you have avoided the issue.
Again, this describes the interaction with the 2 attractive vortexes/flow/whatever you want to call it, for your model of how magnets work.
This should cause the magnets to come together and be quite strongly held together, just like the Magdeburg hemispheres.
And continuing with your model, if you then turned both magnets around so the repulsive vortexes face each other, they should repel.
But back in reality, if you turn both magnets around from a position where they attract one another, they still attract one another. If you turn both around from a position where they repel one another, they still repel.
Again, your model fails to explain the observed polarity of magnets.
You need to explain how either 2 attractive vortexes manages to repel one another, or how 2 repulsive vortexes manage to attract one another.
Lowering pressure kills off electromagnetic fields. Why would that be?
That is your baseless claim you are yet to substantiate in any way.
So have you considered that that isn't the case, and that lowering pressure does nothing to electromagnetic fields?