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![]() "Jim Greenfield" wrote in message om... (Bilge) wrote in message ... Greysky: Classically, this yields a simple interpretation. Send an homogenous stream of balls (spacially separated and equal velocities) at the slits. Some pass straight through unaffected; others suffer varying degrees of deflection when striking the edge of the slits, and passing through. Now the balls (photons) are not all travelling parallel, and their probabilities of collision positions produce.......a very recognisable interference pattern. No. Actually the distribution on the screen will not be the observed pattern if the effecr was due to slit scattering. Experimentally disprovable by varying the slit widths. The distribution actually is in agreement with the calculable distribution arising from wave interference. Franz Franz |
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"Franz Heymann" wrote in message ...
"Jim Greenfield" wrote in message om... (Bilge) wrote in message ... Greysky: Classically, this yields a simple interpretation. Send an homogenous stream of balls (spacially separated and equal velocities) at the slits. Some pass straight through unaffected; others suffer varying degrees of deflection when striking the edge of the slits, and passing through. Now the balls (photons) are not all travelling parallel, and their probabilities of collision positions produce.......a very recognisable interference pattern. No. Actually the distribution on the screen will not be the observed pattern if the effecr was due to slit scattering. Experimentally disprovable by varying the slit widths. The distribution actually is in agreement with the calculable distribution arising from wave interference. Franz You may be right! (permission granted to archive) I wonder what the pattern would look like, if photons affect each other before actually making "contact"? This is just following my idea of force at a distance, where if photons behave like bar magnets (revolving on a linear path), then their interaction patterns may look different, as they begin to 'push/pull' each other, before 'contact'. Jim G |
#3
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To you all Have thought about the two slit experiment for over 50
years. Have posted some of my thoughts on it,but now I'm thinking along the lines of both quantum,and string theory Thinking quantum I see a field that can be a superposition of "two" distinct states. I'm thinking about a electromagnetic field Thinking of a wave my first question is "what is waving"? In up and down water waves we know what is waving. Can the string theory tell us what the wave is? Yes my thinking tells me it can and is very obvious for it is the heart of the string theory. A wave is a vibrating string. There was no string theory in the days of Feynman.That makes me more knowledgable in my spacetime. I have been studying the string theory for over 5 years. It fits well with combining are thinking of gravity,as a no mass particle "graviton"(QM) and as a vibrating loop(string theory) Man does a lot with vibrating strings. Nature uses vibrations to create all there is. We can tell a note(sound) by its vibrations. Someday we will be in tune with each particle and energy by its pitch. When we are in tune with the universe we will have the GUT Bert |
#4
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![]() "Jim Greenfield" wrote in message om... "Franz Heymann" wrote in message ... "Jim Greenfield" wrote in message om... (Bilge) wrote in message ... Greysky: Classically, this yields a simple interpretation. Send an homogenous stream of balls (spacially separated and equal velocities) at the slits. Some pass straight through unaffected; others suffer varying degrees of deflection when striking the edge of the slits, and passing through. Now the balls (photons) are not all travelling parallel, and their probabilities of collision positions produce.......a very recognisable interference pattern. No. Actually the distribution on the screen will not be the observed pattern if the effecr was due to slit scattering. Experimentally disprovable by varying the slit widths. The distribution actually is in agreement with the calculable distribution arising from wave interference. Franz You may be right! (permission granted to archive) I wonder what the pattern would look like, if photons affect each other before actually making "contact"? The least negligible of the photon-photon interactions is well understood, having been studied both theoretically and experimentally. This is just following my idea of force at a distance, The concept is non-existent in QED where if photons behave like bar magnets (revolving on a linear path), Photons have no magnetic moment. then their interaction patterns may look different, as they begin to 'push/pull' each other, before 'contact'. Twaddle Franz |
#5
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![]() "Jim Greenfield" wrote in message om... "Franz Heymann" wrote in message ... "Jim Greenfield" wrote in message om... (Bilge) wrote in message ... Greysky: Classically, this yields a simple interpretation. Send an homogenous stream of balls (spacially separated and equal velocities) at the slits. Some pass straight through unaffected; others suffer varying degrees of deflection when striking the edge of the slits, and passing through. Now the balls (photons) are not all travelling parallel, and their probabilities of collision positions produce.......a very recognisable interference pattern. No. Actually the distribution on the screen will not be the observed pattern if the effecr was due to slit scattering. Experimentally disprovable by varying the slit widths. The distribution actually is in agreement with the calculable distribution arising from wave interference. Franz You may be right! (permission granted to archive) I wonder what the pattern would look like, if photons affect each other before actually making "contact"? This is just following my idea of force at a distance, where if photons behave like bar magnets (revolving on a linear path), then their interaction patterns may look different, as they begin to 'push/pull' each other, before 'contact'. Jim G You might consider electron diffraction Jim. There the pattern changes with the anode voltage. Androcles |
#6
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Greysky To me the two slit experiment proves that nature creates
particles in "particles in pairs. (electrons) photons in quantum pairs. |
#7
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Greysky To me the two slit experiment proves that nature creates
particles in in pairs .I"m creating a theory that photons are created in quantum pairs that are half real and the other half virtual. Keep in mind two particles traveling through space parrel(side by side) can answer the two slit experiment(electrons) Two photons represent millions of both real and virtual photons can give the same results. Keep in mind even viruses even so much bigger can go through both slits at the same time and that has to prove my theory. Nature can't make one. Nor man. Bert |
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Hi Henri Willson Have not read a post of yours in a long time. You are
right nightbat's crazy mushrooms,and my Mexican sweet potato pies can make you health(live longer) and crazy mushrooms give you a reason to live(go figure) Bert |
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