The innovative aspect of this activity was the notion that the concept of macroscopic devices could be extended to the molecular level, and that it was possible to design
supramolecular systems that, upon stimulation with external energy stimuli such as UV / Visible light, are capable of performing a variety of specific functions: (i) systems for information processing (e.g., wires, switches, antennas, plug / socket systems, extension cables, memories, logic gates, encoder / decoder, rudimentary neuron - like systems), (ii) devices that when powered by chemical energy or electrochemical energy or by light exhibit machine - like behavior (e.g., piston / cylinder systems, shuttles, lifts, rotary rings, dendritic photo - switchable boxes), and (iii) components for artificial photosynthetic systems.
Back then, most researchers were working on making
supramolecular systems that were able to perform either linear or rotational motions — «but Jean - Marie said, when I arrived in the lab, «You know, the most important mechanical motion in the world is the coiling motion of the proteins in the biological world,»» Barboiu recalls.
Not exact matches
An enzyme interacting with its target or «substrate» molecule is an example of a natural
supramolecular chemical
system.
This will require the cooperative efforts of researchers across a wide range of disciplines: scanning probe microscopy,
supramolecular chemistry, protein engineering, self assembly, robotics, materials science, computational chemistry, self replicating
systems, physics, computer science, and more.