Quantitatively, the most important source of energy for cellular processes is the six-carbon sugar glucose (C6H12O6).
Using light to control cellular processes is one of the attractive areas of research.
Precise spatial and temporal control of cellular processes is in life sciences a highly sought-after capability.
DNA methylation, an epigenetic mechanism playing important role in many cellular processes, is carried out via action of DNA methyltransferase (MTase) enzymes.
The importance of computer simulation in understanding cellular processes is now widely accepted, and a variety of simulation algorithms useful for studying certain subsystems have been designed.
Metabolic control analysis (MCA) has shown that control of pathways and cellular processes is distributed among several participants and, hence, there are not single rate-limiting steps.
The requirement of computer simulation for the understanding of cellular processes is now widely accepted, and a variety of modelling frameworks have been designed to meet this need.
Although the role of PARP-1 in tissue damage, inflammation and ischemia has been extensively studied, the function of PARG in various cellular processes is largely unknown.
Engineering novel, reusable gene networks to provide greater control over cellular processes is one of the goals of the emerging discipline of synthetic biology.
The inference of Gene Regulatory Networks (GRNs) using gene expression data in order to detect the basic cellular processes is a key issue in biological systems.
Thus, although the dominant mutations may destroy the essential function of the plasmid-borne variant, alteration of the transcriptome with minimal perturbation to normal cellular processes is possible via the presence of the native genomic allele.
