Design of the electronic structure of poly-MTO
R. Miller, Ch. Helbig, G. Eickerling, R. Herrmann, E. -W. Scheidt, W. Scherer
Abstract
Polymeric methyltrioxorhenium (poly-MTO) is the first member of a new class of organometallic hybrids which adopts the structural motives and physical properties of classical perowskites in two dimensions. In this study we demonstrate how the electronic structure of poly-MTO can be tailored by intercalation of organic donor molecules such as tetrathiafulvalene (TTF). With increasing donor intercalation the metallic behavior of the parent compound, (CH3)0.92ReO3 · x% TTF (x = 0) becomes suppressed leading to an insulator at donor concentrations x larger than 50. Specific heat, electric resistance and magnetic susceptibility studies indicate that an increasing amount of TTF causes the itinerant electrons of the poly-MTO matrix to localize.
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