Below, we demonstrate this protocol for ChIP enrichment using mouse chromosome 16 tiling microarrays (Agilent Technologies), followed by subsequent deep sequencing using an Illumina/Solexa 1G Genome Analyzer.
Below, we demonstrate that this estimate accurately reflects the fluid conditions inside the channel, and that by adjusting the position of the interface, time-varying chemical signals can be generated and applied to living cells, and their responses observed.
Below, we demonstrate that forming such bridges is of fundamental importance, especially if it can be achieved at the level of individual trials.
Below, we demonstrate the utility of ProKinO in cancer kinome mining and annotation using the knowledge conceptualized on conserved motifs associated with kinase function and regulation.
In contrast, based on the theatrical analyses and empirical results presented below, we demonstrate that the MV, selected by the proposed motion estimation process, is less affected by QP.
In the experiments below, we demonstrate just this.
In the results below we demonstrate several such examples.
Below we demonstrate that one of the studied photosynthetic genes, rbcL, evolved under positive selection during adaptive radiation in Schiedea.
Below we demonstrate that additional investigation provides further insight into the results.
Here below, we demonstrate our SSA implementation on two "toy problem" examples.
Below we demonstrate NouGAT, by assembling the genome of D. bruxellensis, (see Fig. 1).
