The use of these complexes as cellular probes and imaging reagents has also been discussed.
The use of these complexes in areas such as solar energy conversion and the probe of biological systems are also discussed.
The photoluminescence quantum yields are very high, reaching up to unity, highlighting the potential use of these complexes as luminescent probes.
Concerning the potential use of these complexes in biotechnological and biomedical applications, it should be pointed out that the interaction of vesicles with other molecules, such as DNA, RNA, or other biopolymers, results in the formation of the above mentioned lipoplex.
We also used multivariate models with various alternative correlation structures between data streams, but use of these more complex models did not appear to improve performance (Table), possibly because correlation between streams vary year to year; the multivariate model is based on constant correlations (Technical Appendix).
Hence, the use of the complex components of the computer shows the state of my mind.
In order to confirm the potential use of these Re complexes as fluorophores, their ability to act as microscopic stains was tested using plant cells (Allium cepa bulb cells) and rat peritoneal cells.
This effect would be difficult to assess in a study using univariate analysis of these complex formulations, however the multivariate approach using DoE and Principal Component Analysis (PCA) efficiently illustrated its usefulness in the current study.
Use of these constructs allows complex models to be built in a straightforward manner that fosters rigor and completeness.
Also, in terms of the use of these methods for complex biological samples, we have previously shown that the SERS methods described in this paper were simultaneously able to identify eight human rotavirus strains and classify each according to its G or P genotype with >96% accuracy.
