It is exactly at the intersection of optimal information control and processing that guided aggregation of molecular processes leads to emerging order and the (controlled) biological complexity we call life.
Since then, technological advances have permitted the development of techniques for the measurement of relaxation times covering the entire range of molecular processes and chemical reactivity.
The investigation of molecular processes involves the generation of knockout strains, the determination of promoter strength and protein overexpression.
They interact with a wide range of molecular processes within microorganisms resulting in a range of effects from the inhibition of growth, loss of infectivity to cell death.
Molecular imaging with monoclonal antibodies [mAbs] harbors a potential for diagnosis and therapy response evaluation, as well as for the evaluation of molecular processes in vivo.
Non-invasive imaging of reporter gene expression using different imaging modalities is increasing its role for the in vivo assessment of molecular processes.
Because many micromixers are used as microreactors, a fundamental understanding of molecular processes is important for designing devices with length scale in the micrometer to centimeter range.
This review contains a description of molecular processes underlying the response of stem cells to ionizing radiation, indicating its potential application in differentiation procedures.
This preparation technique makes possible routine imaging/profiling MS analysis of individual cultured cells, allowing for understanding of molecular processes within individual cells.
Knowledge of the nature of molecular processes occurring during melt compounding of nanomaterials and polymers is crucial in determining the ultimate performance of polymer nanocomposites.
The aim of this work is to contribute to the understanding of the relationship between the timescales of molecular processes in ionomers and that of macroscale autonomous healing.
