Molecular fields including hydrophobic, steric and electrostatic interaction energies are calculated for the set of compounds.
These databases are usually run by a world-leading expert, and most of these databases have a main focus on curating fundamental molecular data about proteins, often linking sequence, structural and functional features relevant to a broad range of fields including molecular biology, biomedicine and biotechnology.
Recent fellows have come from a range of fields including molecular biology, physics, chemistry, engineering, earth sciences, and others.
Carbon nanotubes, because of unique mechanical, physical, and chemical properties, have great potential applications in various fields including molecular electronics, medical chemistry, and biomedical engineering [64 72].
Nanomedicine, the application of nanotechnology to medicine, encompasses a broad spectrum of fields including molecular detection, diagnostics, drug delivery, gene regulation and protein production.
Derived from these properties, nanoporous AAO has found applications in many fields including molecular separations, adsorption, catalysis, biosensing, photonics, energy storage, fuel cells, nanofabrication, cell growth, and drug delivery [31 34].
Such datasets are currently emerging in a number of research fields, including molecular medicine.
This model has been used by authors in various fields including molecular biology, information theory, operations research and statistical physics; for references see [ 7, 18].
Understanding the causes of rate variation in protein evolution is central for many fields including molecular evolution, comparative genomics and structural biology.
Because MUPAC can flexibly manipulate DNA in a simple and efficient manner, this method could greatly contribute toward research in many fields including molecular and synthetic biology.
