DNA is software, protein are hardware, cells are factories.
Differences in "machinery" (interplay of cellular pathways to maintain cellular homeostasis) between types has been well studied, but to what extent differences in "hardware" (protein structures and catalytic properties) contribute to the particular physiology of different Symbiodinium types should also be considered.
Such performance may enable complex analyses of voluminous sequence datasets, and has the potential to interoperate with other hardware architectures for protein sequence analysis.
The five main components of the program that will be discussed in this project are: Concept studies, Flight hardware development, Benchmark protein set, CSA PCG Mission Support Centre, and Science support.
Although Molecular Dynamics (MD) simulations are generally accepted to accurately model protein dynamics [1], commonly available hardware can only simulate systems for hundreds of nanoseconds (although a few microsecond simulations have been reported [2], [3].
For the analysis of noncovalent protein complexes or assemblies, advances in MS hardware and scientific expertise have opened up new ways of investigation.
While an advance in integration, the assay sees low protein immobilization efficiencies (∼0.01%) and substantial hardware (fluid pumping, high voltage, and robotic control for multiplexing).
Combining the significant enhancements in reporter proteins suitable for in vivo use and novel hardware solutions holds significant promise [ 97].
I.B.M. would supply hardware, software and services to MDS, which studies protein location, interaction, structure and function.
Fluorescent activated cell sorting (FACS), the most widely used cell sorting method, uses expensive hardware and requires labeling the cells of interest by fluorescent antibodies or cellular proteins.
