de Haan<i>et al.</i>Reply:

Haan, V.O. de; Plomp, J.; Rekveldt, Theo; Kraan, W.H.; Well, A.A. van; Dalgliesh, Robert M.; Langridge, S.

doi:10.1103/physrevlett.105.018902

Cited by 10 publications

(11 citation statements)

References 8 publications

(12 reference statements)

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“…The conclusions drawn were criticized in a comment by Ignatovich, who points out that the experiment does not constitute a direct measurement of the Goos-Hänchen shift because there is no clear-cut relation between Larmor precession and ζ ± [278,279]. The issue is still to be clarified by an experiment that does not rely on the neutron spin and can directly measure the Goos-Hänchen shift ζ of an unpolarized neutron beam upon total reflection by a non-magnetic surface.…”

Section: The Goos-hänchen Shiftmentioning

confidence: 99%

Fundamental phenomena of quantum mechanics explored with neutron interferometers

Klepp,

Sponar,

Hasegawa

2014

Preprint

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Ongoing fascination with quantum mechanics keeps driving the development of the wide field of quantum-optics, including its neutron-optics branch. Application of neutronoptical methods and, especially, neutron interferometry and polarimetry has a longstanding tradition for experimental investigations of fundamental quantum phenomena. We give an overview of related experimental efforts made in recent years.

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Section: The Goos-hänchen Shiftmentioning

confidence: 99%

Fundamental phenomena of quantum mechanics explored with neutron interferometers

Klepp,

Sponar,

Hasegawa

2014

Preprint

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“…Reviewing the previous studies, at the relatively low laser intensity, the V-like structure has been observed in the linearly polarized laser pulse, [20] and theoretical studies have proved that both nuclear attraction at recollision and electronelectron repulsion in the final state play significant roles in forming the V-like structure. [4,21] At the relatively high laser intensity, the V-like structure has also been observed in linearly polarized, but the theoretical study demonstrated that the V-like structure result from asymmetric energy sharing at recollision. [22] For our results, in the elliptically polarized few-cycle laser pulse, we also observe an obvious V-like structure locating in the third quadrant, as shown in Fig.…”

Section: The Classical Ensemble Modelmentioning

confidence: 99%

Microscopic Dynamics of Nonsequential Double Ionization by Elliptically Polarized Few-Cycle Laser Pulses

Yu¹,

Li²,

Li³

2013

Commun. Theor. Phys.

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With the classical ensemble model, we investigate nonsequential double ionization (NSDI) of xenon atoms using 780 nm, 0.25 PW/cm 2 elliptically polarized few-cycle laser pulses. The momentum distribution of correlated electron along the long axis of the laser polarization plane shows an obvious V-like structure locating at the third quadrant, and the momentum along the short axis of the laser polarization plane are mainly distributed in the second and fourth quadrants. Moreover, we demonstrate that the Coulomb repulsion interaction plays a decisive role to the above results. By back analyzing the classical trajectories of NSDI, we find that there are two kinds of recollision trajectories mainly contribute to NSDI, and the different microscopic dynamics for the two kinds of trajectories are clearly explored.

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“…It is worth m entioning that the negative GH shift may appear in negative perm ittivity m edia [4], absorbing m edia [5][6][7][8], and negative refractive media. The GH shift can appear in the reflection o f partial coherence light [9], neutrons [10], electrons [11,12], spin waves [13], and m atter waves [14]. It is w idely believed that the shift is a coherence phenom enon; however, the degree o f spatial coherence o f light does not influence the GH shift [15].…”

Section: Introductionmentioning

confidence: 99%

Goos-Hänchen shift in a standing-wave-coupled electromagnetically-induced-transparency medium

et al. 2015

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The Goos-Hiinchen shift of the system composed by two cavity walls and an intracavity atomic sample is presented. The atomic sample is treated as a four-level double-A system, driven by the two counterpropagating coupling fields. The probe field experiences the discontinuous refractive index variation and is reflected. Moreover, under the phase-matching condition, the four-wave mixing effect based on electromagnetically induced transparency can cause effective reflection. The Goos-Hiinchen shifts appear in both situations and are carefully investigated in this article. We refer to the first one with the incident and reflected light having identical wavelength as the linear Goos-Hiinchen shift, and the second one with the reflection wavelength determined by the phase-matching condition as the nonlinear Goos-Hiinchen shift. The differences between the two kinds of shifts, such as the incident angle range, conditions for the shift peaks, and controllability, are discussed.

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de Haanet al.Reply:

Cited by 10 publications

References 8 publications

Fundamental phenomena of quantum mechanics explored with neutron interferometers

Fundamental phenomena of quantum mechanics explored with neutron interferometers

Microscopic Dynamics of Nonsequential Double Ionization by Elliptically Polarized Few-Cycle Laser Pulses

Goos-Hänchen shift in a standing-wave-coupled electromagnetically-induced-transparency medium

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