Not incorrect physics at all, this is were the duping comes in.....The man can apply as much force as he wants but until he lets go, which means, the minute his grip is fractionally released which you will not see in the picture, it is only then that the effects of the mass of the ball comes into play,
Incorrect. F=ma, so a=F/m If he applies a force to a mass it will accelerate. The mass of the ball instantly is taken into account.
If he went to throw the ball yet stopped at the point of release and grabbed it, he would move slightly back and then forward back to the exact same position.Try it if you don't believe me. This experiment is designed to simply baffle people and it works, just not with me.
No, this is correct. He applies a force to the ball and he "would move slightly back" and then counter acts that force with an opposite force and move "forward back to the exact same position". So if he applies a force to the ball, and then you take the ball, he is unable to counter act the force and only moves backwards. Glad you agree that your first assumption of what would happen is wrong.
The problem with physics is, it will not recognise weight and mass.
Physics uses mass all the time. You have no idea what you are talking about. Weight is even used sometimes. Usually it is called the force due to gravity. I can't even comprehend how you think physics doesn't recognize them.
Yes they are different in respect of size to weight ratios but no matter which way you look at it, mass has weight.
No, mass is mass and weight is weight. An object on earth has the same mass as it would on the moon. An object on earth has a different weight than it would on the moon. This is not up for debate. Mass still equals volume times density. Weight still equals mass times gravitational acceleration. SO ass you can see, an object in space will have zero weight but still have the same mass.
the supposed weightless environment of space as we are told it is, simply wouldn't recognise the mass as I explained before, with the cannon ball and the equal sized plastic lookalike cannon ball.....
If you were in space, both those balls would weight nothing and neither would you.
Correct.
You could hold both in your hands and feel no weight because there is no weight coming from the mass.
Correct.
You can push both balls away and because there is nothing acting upon them at all, you could be pushing away two plastic balls or two cannon balls and you would not have a clue which was which, assuming they looked identical.
And here is where you fail again. Force still equals mass times acceleration. If you push them equally, one will float away at different velocity as they accelerated differently. He have not disproved this. IF what you say was true, you could float over to the wall of the space ship and just push it along from inside. But luckily for physics, the spaceship has a much greater mass than you, so if you tried to push a wall of the spaceship, you would simple be pushed away from the wall, the wall wouldn't be pushed away from you.
Disprove this if you think it is wrong.
The problem with debating space, is, it comes down to the chicken and the egg argument, or the round stationary Earth versus the rotating Earth argument. It could (up to now) be only solved by going into space and viewing the Earth from a still point in space.
I don't know who said this because you miss quoted, but scientists don't just sit around and eat cake all day. They actually work.