Achieving full, nanometer-scale control over the positioning and organization of molecules
into monolayers at surfaces represents a major challenge, with potential interest in the field …

The liquid–solid interface is a unique medium to support the self-assembly of molecules into
surface-confined networks. Non-covalent interactions are key in forming these two …

Over the past two decades, solution/solid STM has made clear contributions to our
fundamental understanding of the thermodynamic and kinetic processes that occur in …

The liquid/solid interface provides an ideal environment to investigate self-assembly
phenomena, and scanning tunneling microscopy (STM) is the preferred methodology to …

Supramolecular engineering comprises the design, synthesis and self-assembly of well-
defined molecular modules into tailormade architectures. The incorporation of functional …

The use of self-assembly to fabricate surface-confined adsorbed layers (adlayers) from
molecular components provides a simple means of producing complex functional surfaces …

Self-assembly of nanometer-sized building blocks at surfaces and interfaces is of increasing
interest for nanotechnology research.[1, 2] Recently surface-confined two-dimensional (2D) …

The formation of highly ordered 2D supramolecular architectures self‐assembled at the solid–
solution interfaces is subject to complex interactions between the analytes, the solvent, and …

Exploring supramolecular architectures at surfaces plays an increasingly important role in
contemporary science, especially for molecular electronics. A paradigm of research interest …

Control over molecular nanostructure is of the utmost importance in bottom-up strategies to
create functionalized surfaces for electronic devices and advanced materials. In this context …