Organization of Charge‐Carrier Pathways for Organic Electronics | Zendy

Kastler M. | Zendy; Pisula W. | Zendy; Laquai F. | Zendy; Kumar A. | Zendy; Davies R. J. | Zendy; Baluschev S. | Zendy; Garcia–Gutiérrez M.C. | Zendy; Wasserfallen D. | Zendy; Butt H.J. | Zendy; Riekel C. | Zendy; Wegner G. | Zendy; Müllen K. | Zendy

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Organization of Charge‐Carrier Pathways for Organic Electronics

Author(s) -

Kastler M.,

Pisula W.,

Laquai F.,

Kumar A.,

Davies R. J.,

Baluschev S.,

Garcia–Gutiérrez M.C.,

Wasserfallen D.,

Butt H.J.,

Riekel C.,

Wegner G.,

Müllen K.

Publication year - 2006

Publication title -

advanced materials

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 10.707

H-Index - 527

eISSN - 1521-4095

pISSN - 0935-9648

DOI - 10.1002/adma.200601177

Subject(s) - charge (physics) , materials science , superstructure , discotic liquid crystal , substrate (aquarium) , organic semiconductor , anisotropy , electronics , semiconductor , charge carrier , organic electronics , perpendicular , orientation (vector space) , nanotechnology , optoelectronics , physics , chemistry , optics , transistor , liquid crystal , oceanography , quantum mechanics , voltage , geometry , mathematics , thermodynamics , geology

Controlling self‐organization: The chemical variation of alkyl substituents on the discotic hexa‐ peri ‐hexabenzocoronene allows the molecular orientation to be controlled with respect to a substrate, which is a key prerequisite to implement such semiconductors into electronic devices (see figure). Charge‐carrier mobility determined by a time‐of‐flight technique reveals a high anisotropy along and perpendicular to the established columnar superstructure.

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