2006-10-27 17:50:43 · 11 answers · asked by Joan P 1 in Science & Mathematics ➔ Astronomy & Space
Albert Einstein - when explaining a phenomenon, he used the expression that the result was due to the impenetrability of two objects occupying the same space at the same time.........
2006-10-27 17:55:02 · answer #1 · answered by LeAnne 7 · 1⤊ 1⤋
Issac Newton. It's one of his laws of physics.
2014-08-06 07:42:27 · answer #2 · answered by Comicus 1 · 0⤊ 0⤋
That sounds an awful lot like Wolfgang Pauli's exclusion principle. No 2 fermions(particles with mass) can have the same quantum numbers. Basically, they can't be in the same spot and have the same spin and energy levels
2006-10-27 17:54:23 · answer #3 · answered by Greg G 5 · 1⤊ 0⤋
Pauli Exclusion pertains to the quantum theory of electrons wherein electrons do no longer probable have mass or spectacular places. Electrons are expressed as risk density applications. All somewhat over your pay grade probable. i might propose that what your place artwork ought to be approximately is Einstein's area/time and particular relativity.
2016-11-26 00:21:08 · answer #4 · answered by ? 4 · 1⤊ 0⤋
Probably Archimedes, since that's the basis for Archimedes' Principle of Bouyancy:
http://en.wikipedia.org/wiki/Bouyancy
2006-10-27 18:19:38 · answer #5 · answered by arbiter007 6 · 0⤊ 0⤋
Wolfgang Pauli!!!!!
2006-10-27 19:51:48 · answer #6 · answered by Danelle J 2 · 0⤊ 0⤋
LeAnn is absolutely correct- einstein THE GREAT!
2006-10-27 18:00:03 · answer #7 · answered by SKayeMesqTX 2 · 0⤊ 0⤋
Shoot, my dad used to say that whenever we saw a car accident.
2006-10-27 17:59:46 · answer #8 · answered by princessmeltdown 7 · 1⤊ 0⤋
.theories are meant to be broken or proved...newton said something along those lines........ laws prove themselves over and over against deconstuction of their statement.
2006-10-27 18:14:33 · answer #9 · answered by Book of Changes 3 · 0⤊ 1⤋
I don't know, but I think he/she was talking about George Bush and a brain.
2006-10-27 17:52:18 · answer #10 · answered by Ignoramus 3 · 1⤊ 7⤋