Fractional topological insulators
... Two ways to analyze this question: 1. A flux insertion argument ...
... Two ways to analyze this question: 1. A flux insertion argument ...
Paper
... off-resonant scattering of the seed and conjugate wave during the pulse, which caused a 20% loss of atoms from the amplified waves and accounted for the dip in mode occupation seen in Fig. 3 (). Finally, beyond 300 s, amplification slows down in Fig. 3 () and departs from the numerical simulat ...
... off-resonant scattering of the seed and conjugate wave during the pulse, which caused a 20% loss of atoms from the amplified waves and accounted for the dip in mode occupation seen in Fig. 3 (). Finally, beyond 300 s, amplification slows down in Fig. 3 () and departs from the numerical simulat ...
Selective field ionization in Li and Rb: Theory and experiment
... we ignore the phase accumulation in each path; thus we follow populations instead of amplitudes. This is a very good approximation for SFI once the levels from n⫺1 and n⫹1 start to cross, since there are a very large number of paths that lead to ionization at field F, with nearly randomly varying ph ...
... we ignore the phase accumulation in each path; thus we follow populations instead of amplitudes. This is a very good approximation for SFI once the levels from n⫺1 and n⫹1 start to cross, since there are a very large number of paths that lead to ionization at field F, with nearly randomly varying ph ...
Nature 425, (937
... suggested that controlled interactions between atoms on neighbouring lattice sites could be used to realize a massively parallel array of neutral-atom quantum gates5,11–14, with which a large multiparticle system could be highly entangled6 in a single operational step. Furthermore, the repeated appl ...
... suggested that controlled interactions between atoms on neighbouring lattice sites could be used to realize a massively parallel array of neutral-atom quantum gates5,11–14, with which a large multiparticle system could be highly entangled6 in a single operational step. Furthermore, the repeated appl ...
Spin-density wave in a quantum wire
... ∆Z = gµB B is the Zeeman splitting, and EF = kF2 /2m is the Fermi-energy which is set by the two-dimensional reservours to which the wire is adiabatically connected. It is easy to see that in the absence of magnetic field SOI in (23) can be easily gauged ...
... ∆Z = gµB B is the Zeeman splitting, and EF = kF2 /2m is the Fermi-energy which is set by the two-dimensional reservours to which the wire is adiabatically connected. It is easy to see that in the absence of magnetic field SOI in (23) can be easily gauged ...
Q1. A small mass is situated at a point on a line joining two large
... incorrect choice was distractor A, where the students may have thought V is proportional to 1/r2. ...
... incorrect choice was distractor A, where the students may have thought V is proportional to 1/r2. ...
Static Electricity and Magnetism Review for the Test ANSWER KEY
... 1. What is the difference between an insulator and a conductor? Provide 2 examples of each. Insulator: electrons do not move freely rubber, plastic, dry air, glass Conductor electrons can move freely, permit other electrons to move through most metals, skin, wet/humid air ...
... 1. What is the difference between an insulator and a conductor? Provide 2 examples of each. Insulator: electrons do not move freely rubber, plastic, dry air, glass Conductor electrons can move freely, permit other electrons to move through most metals, skin, wet/humid air ...
document
... in strong magnetic fields has spurred an interest in understanding how the environment distorts the avalanche process. In this paper, we extend the multiplication-assisted diffusion avalanche model to include convection from a Lorentzian force caused by a strong magnetic field. Simulations imply th ...
... in strong magnetic fields has spurred an interest in understanding how the environment distorts the avalanche process. In this paper, we extend the multiplication-assisted diffusion avalanche model to include convection from a Lorentzian force caused by a strong magnetic field. Simulations imply th ...
Observation of qubit state with a dc-SQUID and dissipation effect... Hideaki Takayanagi, Hirotaka Tanaka, Shiro Saito and Hayato Nakano
... superconductor, have appropriate scalability when we utilize the well-established nanometer-scale fabrication technology now widely used in the semiconductor industry. The short coherence time in a solid-state quantum bit is due mainly to the existence of many degrees of freedom. The gate operations ...
... superconductor, have appropriate scalability when we utilize the well-established nanometer-scale fabrication technology now widely used in the semiconductor industry. The short coherence time in a solid-state quantum bit is due mainly to the existence of many degrees of freedom. The gate operations ...
Nonlinear Propagation of Crossing Electromagnetic Waves in
... Among other interesting phenomena [1, 2], Quantum Electrodynamics (QED) and non-standard theories of the electromagnetic field[3, 4] predict that the vacuum should behave like a kind of virtual electron-positron plasma, thus allowing for photon-photon (77) scattering. However, the latter prediction ...
... Among other interesting phenomena [1, 2], Quantum Electrodynamics (QED) and non-standard theories of the electromagnetic field[3, 4] predict that the vacuum should behave like a kind of virtual electron-positron plasma, thus allowing for photon-photon (77) scattering. However, the latter prediction ...
Theory of plasmonic waves on a chain of metallic
... particles.5–9 For chains of metallic particles, the coupling between the plasmons comes mainly from the electric field produced by the dipole moment of one nanoparticle, which induces dipole moments on the neighboring nanoparticles. The dispersion relations for both transverse (T ) and longitudinal ...
... particles.5–9 For chains of metallic particles, the coupling between the plasmons comes mainly from the electric field produced by the dipole moment of one nanoparticle, which induces dipole moments on the neighboring nanoparticles. The dispersion relations for both transverse (T ) and longitudinal ...
