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Composite-Particles (Boson, Fermion) Theory of Fractional Quantum Hall Effect

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Abstract

A theory is developed for fractional quantum Hall effect in terms of composite (c)-bosons (fermions) without useing Laughlin’s results about the fractional charge. Here the c-particle (fermion, boson) is defined as a bound composite fermion (boson) containing a conduction electron and an even (odd) number of fluxons (elementary magnetic fluxes). The Bose-condensed c-bosons, each containing an electron and an odd number m of fluxons at the filling factor ν=1/m is shown to generate the Hall conductivity plateau value m e 2/h, where the density of c-particles, \(n_{\phi }^{(m)}\), either bosonic or fermionic, with m fluxons is given by \(n_{\phi }^{(m)}=n_{\mathrm {e}}/m\), n e = electron density. The only assumption is that any c-fermion carries a charge magnitude equal to the electron charge e. The quantum Hall state is shown to be more stable at ν=1/3 than at ν=1.

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Correspondence to Akira Suzuki.

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Fujita, S., Suzuki, A. & Ho, HC. Composite-Particles (Boson, Fermion) Theory of Fractional Quantum Hall Effect. Int J Theor Phys 56, 396–402 (2017). https://doi.org/10.1007/s10773-016-3180-y

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  • DOI: https://doi.org/10.1007/s10773-016-3180-y

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