By combining biology's information storage and replication strategies, namely specific hydrogen-bonding between nucleobases, with the potential for hydrogen-bond reorganisation in supramolecular systems, we propose to develop a new, artificial but bio-inspired mechanism for the transfer of information. We aimed to build molecular assemblies which spontaneously associate and fold in solution, forming intramolecular polarized hydrogen-bond networks. By addition of simple chemical additives forming competitive intermolecular hydrogen bonds with the foldamer, the directionality of these networks will be modified, transforming a conformational mixture to a well-defined unidirectional network. Molecular events such as reversible switching, chemical sensing, and long-distance information communication will be studied in 3D hydrogen bond networks, with to the overall objective of making highly functionalised, well-defined responsive macromolecular arrays ‘bottom-up’. Structures that give a non-spectroscopic 'readout' of the interaction with the additive will be built, which for example exhibit 'off-on' fluorescence or 'off-on' catalytic activity. The application of these foldamers in the construction of photochemically switchable molecular devices will be investigated. The work will contribute to the development of new nano-scale functionality that could impact on the way that medical devices or other interactive modules function at a molecular level.