To achieve these goals methods for (1) monitoring of the metabolic load of host cell, (2) methods to monitor and control plasmid copynumber and (3) measures for tuning the expression rate to the metabolic load limits of the host cell must be established.
The accuracy achieved by these methods was between 71.23% and 77.54%, which was lower than the proposed approach.
Further, an HA coating of high crystallinity, which is desirable for optimal biocompatibility, could not be achieved through these methods [8].
Measured thermal conductivities of 1.0 W mK−1 have been achieved using these methods, much lower than current commercial EB-PVD coatings at 1.5 1.9 W mK−1.
However, although the full regeneration of the specific tissues is not yet achieved by these methods the aim is to regnerate tissue instead of insufficient repair.
The fitting between the calculated and measured vibrational wavenumbers was achieved by these methods, and the deviations between the calculated and experimental values are quite small after scaling the wavenumbers.
It is shown that a high degree of precision is achieved with these methods and the values obtained through GQ are in good agreement with (and even better than) the values reported in literature by Nicholson-Shain, for example.
Crucial to the precision of a few hundredths of Hz achieved by these methods was the use of long modulation intervals and BIRD pulses, which acted as semiselective inversion pulses.
Although high yields can be achieved using these methods [10 23], several factors must be considered, including the high cost of expensive metal catalysts, the inaccessibility of organic super-electron donors, strict reaction conditions that always involve high temperatures, long reaction time, and complicated combinations of reagents.
Finally, the dramatic increase in hEB output achieved using these methods now permits hEB-mediated differentiation applications not previously attainable.
