
Localization transition in a ballistic quantum wire
... weakest amount of disorder to pin the crystal, thereby suppressing conductance at low temperatures.4 In a previous work5 we presented tunneling measurements of a wire undergoing suppression of conductance as n is reduced below a critical density. The electrons left in the wire are argued to be local ...
... weakest amount of disorder to pin the crystal, thereby suppressing conductance at low temperatures.4 In a previous work5 we presented tunneling measurements of a wire undergoing suppression of conductance as n is reduced below a critical density. The electrons left in the wire are argued to be local ...
Physics 210 - Cuyamaca College
... 2) Investigate and delineate the relationship between the theoretical principles of physics and their practical applications, and explain how this relationship affects real world problem solving. 3) Investigate, interpret and analyze the fundamental principles of physics based on reading assignment ...
... 2) Investigate and delineate the relationship between the theoretical principles of physics and their practical applications, and explain how this relationship affects real world problem solving. 3) Investigate, interpret and analyze the fundamental principles of physics based on reading assignment ...
Seeing a single photon without destroying it
... annihilate photons and convert them into electrical signals, making it impossible to see a single photon twice. But this limitation is not fundamentalÐquantum non-demolition strategies1±3 permit repeated measurements of physically observable quantities, yielding identical results. For example, quant ...
... annihilate photons and convert them into electrical signals, making it impossible to see a single photon twice. But this limitation is not fundamentalÐquantum non-demolition strategies1±3 permit repeated measurements of physically observable quantities, yielding identical results. For example, quant ...
Derivation of new quantum hydrodynamic equations using entropy
... where we have used the notation hg(p)i = f (·, p)g(p)dp for functions g(p). In order to obtain macroscopic equations as well, a moment method is applied to (1.1): we multiply the equation by 1, p, and 21 |p|2 and integrate over momentum space. This yields evolution equations for n, nu and e. However ...
... where we have used the notation hg(p)i = f (·, p)g(p)dp for functions g(p). In order to obtain macroscopic equations as well, a moment method is applied to (1.1): we multiply the equation by 1, p, and 21 |p|2 and integrate over momentum space. This yields evolution equations for n, nu and e. However ...