Spinning Randomly in the Hall

Spinning-current Hall Plate with Integrated Switches

integrated switches Sandra Bellekom, Song Yin and Anton Bakker Delft University of Technology Department of Electrical Engineering, Electronic Instrumentation Laboratory, Mekelweg 4, 2628 CD Delft, The Netherlands Tel. +31 (0)15-278 3342 fax. +31 (0)15-278 5755 [email protected] Abstract|Hall plates are magnetic sensors. Made in a standard IC process they have the advantage of being cheap...

Principle for spinning light and the Optical Hall effect

Mimicking the description of spinning particles in General Relativity, the Fermat Principle is extended to spinning photons. Linearization of the resulting Papapetrou-Souriau type equations yields the semiclassical model used recently to derive the “Optical Hall Effect”. The shift of the planes of the incident and refracted (resp. reflected) light found by Onoda, Murakami and Nagaosa is recover...

Spinning Braid Group Representation and the Fractional Quantum Hall Effect

The path integral approach to representing braid group is generalized for particles with spin. Introducing the notion of charged winding number in the super-plane, we represent the braid group generators as homotopically constrained Feynman kernels. In this framework, super Knizhnik-Zamolodchikov operators appear naturally in the Hamiltonian, suggesting the possibility of spinning nonabelian an...

Fermat Principle for spinning light and the Optical Hall effect

Mimicking the description of spinning particles in General Relativity, the Fermat Principle is extended to spinning photons. Linearization of the resulting Papapetrou-Souriau type equations yields the semiclassical model used recently to derive the “Optical Hall Effect”. The shift of the planes of the incident and refracted (resp. reflected) light found by Onoda, Murakami and Nagaosa is recover...

Spin Hall effect and Berry phase of spinning particles