By analyzing tool choice, tool swapping and improvement over time, we show that successful subjects did not use a random probing strategy.
Then, depending upon the marker category, the nature of the polymorphism and other criteria as detailed below, an appropriate probing strategy was defined for each site, utilizing from one to eight distinct probe sequences on the array.
A sensitive fluorescence probing strategy for parathion-methyl (PM) detection was developed based on electron transfer (ET) between p-nitrophenol (the hydrolysate of PM) and CdTe quantum dots (QDs) in cetyltrimethylammonium bromide (CTAB).
This probing strategy, which is considered dense, gives a very high intergenic coverage (up to 7 nt resolution), On the other hand, it gives sufficient coverage within regions of known genes.
While the in-channel probing strategy underpins completion of Western blotting in a single microchannel, the approach poses a particular challenge for small-molecular-mass species.
With few optimizations done to the probing strategy, the overhead incurred can be minimized considerably, which makes the proposed technique useful for detecting DDoS attacks.
In this manuscript, we present our probe-level analysis of the exon array data, and describe a probe selection strategy for computing gene expression indexes from Exon Arrays.
We hereby explored a probe labeling strategy that significantly increased the target volume of real-time PCR detection in one reaction.
A probe-masking strategy utilising hybridization of papaya genomic DNA was used to identify probes with low or non-specific hybridization.
Such a probe design strategy robustly captures any RNA and enables the use of stringent hybridization and washing conditions that dramatically reduce nonspecific interactions of off-target nucleic acids or proteins.
We presumed that a probe design strategy such as this would be ideally suited for genotyping studies for two reasons: i) the probe redundancy for each genomic target sequence and ii) the excellent specificity afforded by hybridization of short 25-mer probes.
