molecular self-assembly

In recent years, molecular self-assembly has emerged as a field in its own right.

Shinkai is known for his pioneering research in molecular self-assembly.

Molecular self-assembly is the assembly of molecules without guidance or management from an outside source.

The process by which a supramolecular assembly forms is called molecular self-assembly.

When the constitutive components are molecules, the process is termed molecular self-assembly.

Molecular self-assembly is a key concept in supramolecular chemistry.

Molecular self-assembly is an important aspect of bottom-up approaches to nanotechnology.

These approaches utilize the concepts of molecular self-assembly and/or molecular recognition.

Molecular self-assembly is a process by which molecules adopt a defined arrangement without guidance or management from an external source.

One can promote or delay gelation by influencing the molecular self-assembly of organogelators in a system.

Molecular self-assembly of resorcinarenes and pyrogallolarenes lead to larger supramolecular assemblies.

So I should stop attending lectures on chemical biology and molecular self-assembly by folks from Scripps, then?

Molecular self-assembly allows the construction of challenging molecular topologies.

These schemes would make heavy use of molecular self-assembly, designing the device components to construct a larger structure or even a complete system on their own.

Molecular self-assembly is found widely in biological systems and provides the basis of a wide variety of complex biological structures.

By manipulating the solvent-molecule interactions, one can promote molecular self-assembly of the organogelator and therefore gelation.

He explains to other characters, and they to him, the fine points of molecular self-assembly, of genetic algorithms, of co-evolution.

In the speculative vision of molecular nanotechnology, microchips of the future might be made by molecular self-assembly.

Presently, there are several ways proposed to make nanosensors, including top-down lithography, bottom-up assembly, and molecular self-assembly.

Further examples of supramolecular assemblies demonstrate that a variety of different shapes and sizes can be obtained using molecular self-assembly.

Molecular self-assembly also allows the construction of larger structures such as micelles, membranes, vesicles, liquid crystals, and is important to crystal engineering.

The micelle packing parameter equation is utilized to help "predict molecular self-assembly in surfactant solutions":

Chemical synthesis of this device is based on molecular self-assembly from a preformed thread and two bead fragments (32% chemical yield).

Foldamers have been demonstrated to display a number of interesting supramolecular properties including molecular self-assembly, molecular recognition, and host-guest chemistry.

Molecular self-assembly is at the heart of crystal engineering, and it typically involves an interaction between complementary hydrogen-bonding faces or a metal and a ligand.