In the first chapter of this dissertation work, I will provide a thorough overview of the interplay between protein localization, cell morphology, and growth.
A more thorough understanding of the interplay between these factors will eventually allow us to elucidate the underlying mechanisms of disease susceptibility following infection, and to design potent vaccines and other immunomodulating reagents.
As argued above, one of our central concerns in performing these experiments was to have sufficient, systematic data to make it possible to carry out a thorough analysis of the interplay between theories of transcriptional regulation (and DNA looping) [40] [43], and experiment.
This would allow a thorough investigation of the interplay between receptor sequence and cell-type specific mechanisms of receptor regulation.
Ideally, a thorough analysis of the interplay between these factors in individual samples could result in increased amplification rates.
In future, a more thorough study of the interplay between capicúa, 14-3-3 and the promoter regions of each of the PEA3 transcription factors will be required.
This, in turn, may lead to adjustments in food and agriculture, land use, physical planning, trade practices and so on, based on more thorough understanding of the interplay and feedback between human action, pathogen host environment dynamics, and pathogen evolution.
Integration of epigenetic, transcriptomic, and proteomic data sets generated by these techniques will facilitate a more thorough understanding of the interplay of these processes under normal conditions and during arsenic exposure.
A more thorough understanding of the biological interplay between tendinopathy and other disease states remains elusive.
A thorough mechanistic understanding of the interplay between mA, ESEs and SR proteins will be a challenge for future studies.
The secondary analysis, which could provide a more thorough understanding [ 54], indicated an interplay between the context and facilitation.
