Reaction engineering methodology is uniquely suitable to solve many synthesis, analytical and processing problems associated with the fabrication of advanced ceramic materials.
In order to test the hypothesis that our prognostic models are tracking molecular phenotypes of high versus low risk ovarian cancer, we used a methodology (Subclass Mapping-SubMap) that is uniquely suitable to assess the genome-wide molecular correspondence of pre-specified subtypes in independent and even technically disparate datasets [17].
Those who held the former view recognized that some notion of function or teleology generally was uniquely suitable to biology and not eliminable from it.
Because the functional role of these cells is well defined and they are uniquely suitable to be studied using modern multi-disciplinary approaches, from biochemistry to genetics, photoreceptors represent an almost unmatched model system for addressing fundamental issues in molecular and cellular neuroscience, as well as cell signaling in general.
As compared to other methods, electron microscopy is uniquely suitable for analysis of a broad range of specimens, from small proteins to large complexes.
This trans-splicing method is uniquely suitable for protein C-terminal labeling, in contrast to a previously reported trans-splicing method using the S1 split-intein for protein N-terminal labeling [26], [29].
To Palmieri, the English language is uniquely suitable for verbal humour.
Together, these findings show that this method is uniquely suitable for elucidating the molecular mechanisms coupling transmembrane signaling to the assembly of complex AChR-rich postsynaptic membrane in vitro.
As such, the presented Hamming discriminator is uniquely suitable for real-time image processing and alignment applications.
The magnet design is uniquely suitable for multiplexing by magnet tessellation, here meaning the tiling of the magnet assembly cross-sectional plane by periodic repetition of the magnet and the flow channel shapes.
As an optical approach, it is inherently scalable for remote and parallel interrogation of biological function at the tissue level; with implantable miniaturized devices, the technique is uniquely suitable for in vivo tracking of function, as illustrated by numerous applications in the brain.
