Inserting molecular monolayers within metal/semiconductor interfaces provides one of the
most powerful expressions of how minute chemical modifications can affect electronic …

In this review, we present important concepts to describe inorganic–organic interfaces in
hybrid solar cells. We discuss the formation of hybrid interfaces, provide an introduction to …

Predicting or manipulating charge-transfer at semiconductor interfaces, from molecular
electronics to energy conversion, relies on knowledge generated from a kinetic analysis of …

Transition voltage spectroscopy (TVS) has become an accepted quantification tool for
molecular transport characteristics, due to its simplicity and reproducibility. Alternatively, the …

The dielectric response and electrical properties of junctions based on self-assembled
monolayers (SAMs) of the form S (CH2) 11X can be controlled by changing the polarizability …

The electrochemical reduction of bulk silica, due to its high electrical resistance, is of limited
viability, namely, requiring temperatures in excess of 850° C. By means of electrochemical …

Molecular electronics that can produce functional electronic circuits using a single molecule
or molecular ensemble remains an attractive research field because it not only represents …

A distinct odd–even effect on the electrical properties, induced by monolayers of alkyl-
phenyl molecules directly bound to Si (111), is reported. Monomers of H2C CH–(CH2) n …

Organic monolayers derived from ω-fluoro-1-alkynes of varying carbon chain lengths (C10–
C18) were prepared on Si (111) surfaces, resulting in changes of the physical and electronic …

The effect of molecular dipoles on charge transport across organic monolayer-modified
metal–semiconductor junctions has been investigated systematically. We have prepared a …