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   <subfield code="a">Highly Correlated State of π Electrons, Self-organization atDoping, and Superconductivity in Doped Picene</subfield>
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   <subfield code="a">It is shown that superconductivity in doped picene and a number of accompanying effects observed in Mitsuhashi etal. (Nature 464:76 2010) find adequate explanation if we invoke the concept of a highly correlated electron state and the superconductivity model suggested for the high-temperature superconductivity in cuprates that includes formation of a one-dimensional Wigner crystal of electron pairs and its delocalization. It is also shown that the highly correlated state of π electrons in picene results from exchange and Coulomb interactions between the π electrons and leads to formation of a spin-ordered Wigner crystal. Picene doping accompanied by valence electron density redistribution transforms the correlated state of electrons into a highly correlated state of electron pairs manifesting itself in formation of Wigner crystals of electron pairs giving rise to superconductivity of a molecular picene ion. Superconductivity of solid picene includes tunneling of Wigner crystals of pairs through Josephson junctions between molecular picene ions.</subfield>
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