Variants of this approach have been used to search for the genomic binding sites of 7 nuclear receptors, each technique having different degrees of bias in terms of the genomic regions probed, resolution, amplification of DNA fragments, analysis algorithms, and other factors [2].
Each compaction technique has different properties (i.e. compression ratio, decompression time and decompression energy) and is best suited for a particular class of applications.
Each protein interaction mapping technique has different advantages and disadvantages [ 29], and the techniques are complementary to some extent.
A comparison of all these results shows that laser and photographic techniques have different strengths and weaknesses that complement each other.
As these different analytic techniques had different results, we included both analyses to demonstrate these differences.
This unexpected behavior is interpreted by considering – the frequently overlooked fact – that various defect-probing techniques have different penetration depths into the particle volume; hence, each technique provides specific information on the relative bulk-to-surface defect ratio.
The SDBs, drilled with medium-radius-drilling techniques, had different configuration parameters, including number of branches, diameter, and relative locations above the mining seam and from the tailgate.
The main idea is that the integration of model based techniques having different underlying formalisms can give valuable practical results in test construction.
The different neuroimaging techniques have different biophysical/biochemical mechanisms, and vary in imaging capabilities.
Different neuroimaging techniques have different spatiotemporal resolutions, and biophysical/biochemical mechanisms, and thereby require different computing workflows; yet a common step of all workflows is the correction of bias and artifacts in neuroimaging data.
