Single-photon sources based on NV
... 2. G. Greenstein, A. G. Zajonc, “The Quantum Challenge: Modern Research on the Foundations of Quantum Mechanics” 2nd ed., Jones and Bartlett (2006). 3. A. Beveratos et al., “Single photon quantum cryptography”, PRL 89, 187901 (2002). 4. R. Brouri et al., “Photon antibunching in the fluorescence of i ...
... 2. G. Greenstein, A. G. Zajonc, “The Quantum Challenge: Modern Research on the Foundations of Quantum Mechanics” 2nd ed., Jones and Bartlett (2006). 3. A. Beveratos et al., “Single photon quantum cryptography”, PRL 89, 187901 (2002). 4. R. Brouri et al., “Photon antibunching in the fluorescence of i ...
Quantum information processing with polar molecules
... Quantum Computing with Polar Molecules: quantum optics - solid state interfaces ...
... Quantum Computing with Polar Molecules: quantum optics - solid state interfaces ...
Slide 101
... by which it is being observed. For this reason, although an optical microscope using light of wavelength 5000 Å would be unable to observe a virus of diameter 200 Å, an electron microscope would work. Calculate the voltage through which electrons must be accelerated to give them a de Broglie wavelen ...
... by which it is being observed. For this reason, although an optical microscope using light of wavelength 5000 Å would be unable to observe a virus of diameter 200 Å, an electron microscope would work. Calculate the voltage through which electrons must be accelerated to give them a de Broglie wavelen ...
Investigating Entanglemen
... more. This contradicts the quantum physics prediction of 25%. Now we can tell the difference between the two models. The original argument about entanglement appeared in an article by Einstein, Podolsky and Rosen in 1935 and it is called the EPR paradox. At that time there was no way to determine wh ...
... more. This contradicts the quantum physics prediction of 25%. Now we can tell the difference between the two models. The original argument about entanglement appeared in an article by Einstein, Podolsky and Rosen in 1935 and it is called the EPR paradox. At that time there was no way to determine wh ...
Dehmelt`s World of Subatomic Particles - UW CoMotion
... Nobel Prize winner and University of Washington professor Hans Dehmelt works with the smallest of subjects - atoms and sub-atomic particles. For example, he has kept individual electrons and other sub-atomic particles trapped for months, permitting measurements of unprecedented precision. The physic ...
... Nobel Prize winner and University of Washington professor Hans Dehmelt works with the smallest of subjects - atoms and sub-atomic particles. For example, he has kept individual electrons and other sub-atomic particles trapped for months, permitting measurements of unprecedented precision. The physic ...
Bell's theorem
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Bell's theorem is a ‘no-go theorem’ that draws an important distinction between quantum mechanics (QM) and the world as described by classical mechanics. This theorem is named after John Stewart Bell.In its simplest form, Bell's theorem states:Cornell solid-state physicist David Mermin has described the appraisals of the importance of Bell's theorem in the physics community as ranging from ""indifference"" to ""wild extravagance"". Lawrence Berkeley particle physicist Henry Stapp declared: ""Bell's theorem is the most profound discovery of science.""Bell's theorem rules out local hidden variables as a viable explanation of quantum mechanics (though it still leaves the door open for non-local hidden variables). Bell concluded:Bell summarized one of the least popular ways to address the theorem, superdeterminism, in a 1985 BBC Radio interview: