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Note on Wave-Particle Unity: Difference between revisions

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==Abstract==
==Abstract==


Although the abstract rules of quantum mechanics and quantum field theory seem to be able to describe the results of quantum optics experiments, it would be highly desirable to comprehend what is actually "going on" in terms of a physical picture of quantum phenomena. Actual experimental realizations in a single manner of correlation of the Einstein-Podolsky-Rosen-Bohm type predicted for entabgled two-photon states can focus attention on this "conceptual incompleteness" of quantum mechanics.[[Category:Scientific Paper]]
Although the abstract rules of quantum mechanics and quantum field theory seem to be able to describe the results of quantum optics experiments, it would be highly desirable to comprehend what is actually "going on" in terms of a physical picture of quantum phenomena. Actual experimental realizations in a single manner of correlation of the Einstein-Podolsky-Rosen-Bohm type predicted for entabgled two-photon states can focus attention on this "conceptual incompleteness" of quantum mechanics.
 
[[Category:Scientific Paper|note wave-particle unity]]


[[Category:Unified Theory]]
[[Category:Unified Theory]]

Revision as of 12:46, 1 January 2017

Scientific Paper
TitleNote on Wave-Particle Unity
Author(s)Huseyin Yilmaz
Keywordswave-particle, unity, quantum mechanics, conceptual incompleteness
Published1994
JournalNone
Pages519-528

Abstract

Although the abstract rules of quantum mechanics and quantum field theory seem to be able to describe the results of quantum optics experiments, it would be highly desirable to comprehend what is actually "going on" in terms of a physical picture of quantum phenomena. Actual experimental realizations in a single manner of correlation of the Einstein-Podolsky-Rosen-Bohm type predicted for entabgled two-photon states can focus attention on this "conceptual incompleteness" of quantum mechanics.