1
The ability to generate null mutants is essential for studying gene function.
2
Transient genetic transformation of plant organs is an indispensable way of studying gene function in plants.
3
The laboratory mouse serves as an important model system for studying gene, brain and behavioural interactions.
4
Quantitative real-time PCR (qRT-PCR) has been widely used for studying gene expression at the transcript level.
5
Synthesizing viral genomes provides a powerful tool for studying gene function and the pathogenic potential of these organisms.
6
Understanding the principles of DNA binding by transcription factors (TFs) is of primary importance for studying gene regulation.
7
With the advent of genome sequencing programmes, these gene technologies provide means of studying gene function in a conclusive manner.
8
This study demonstrates an effective strategy for studying gene function, establishes a functional gene database, and identifies regulators in IFN-I pathways.
9
Furthermore, the expression pattern of some genes provides an experimental basis for studying gene regulation during the change from vegetative to reproductive growth.
10
These limitations impeded the use of this system in studying gene dosage effects in pulmonary pathogenesis and repair mechanisms in the diseased lung.
11
In combination with terminal deletions that can be generated through homologous recombination, the interstitial deletions are useful for mapping and studying gene structure-function relationships.
12
Utility vectors with promoters that confer desired spatial and temporal expression patterns are useful tools for studying gene and cellular function and for industrial applications.
13
Thus far, however, there has been no convenient method for studying gene expression in cells purified by fluorescence-activated cell sorting (FACS) using intracellular markers.
14
Differential Rank Conservation (DIRAC) is a novel approach for studying gene ordering within pathways and is based on the relative expression ranks of participating genes.
