Sentence examples for molecular level control from inspiring English sources

Recent advances in nanotechnology enable us to manipulate and produce materials with molecular level control.

The technique affords molecular level control over the architecture and gives bilayer thickness values of the order of tens of angstroms.

Advances in the fabrication of bioelectrochemical interfaces has provide us with something close to molecular level control over both the immobilisation of biomolecules on an electrode and the environment around which they are immobilised.

These requirements lead to quite sophisticated interfacial design, often with molecular level control, but we have no tools to characterise how well these interfaces work at the molecular level.

The introduction of UAAs results in unique molecular level control and, when combined with the maximal spatiotemporal resolution and poor invasiveness of light, enables direct manipulation and interrogation of ion channel functionality.

This strategy was investigated for its applicability and effectiveness on providing molecular level control over density and spatial distribution of functional groups in a monolayer.

For biologically derived materials, methods are being sought to gain molecular-level control over biological characteristics and biomechanics.

A novel thin film processing technique has been developed for the fabrication of ultrathin films of conducting polymers with molecular-level control over thickness and multilayer architecture.

Due to the prospect of size reduction in electronics offered by molecular-level control of properties, molecular electronics provides means to extend the Moore's law beyond the foreseen limits of small-scale conventional silicon integrated circuits.

This contribution describes a non-aqueous, molecular precursor approach to the preparation of mixed-element oxides, which allows a degree of molecular-level control over the nanostructure of the resulting materials.

Reconstitution of enzymes onto surface tethered cofactors may be considered as a powerful tool both for design of biorecognition interfaces with a molecular-level control over spatial distribution and orientation of biosensing elements and for fundamental studies of their structure function relationships.