The implementation of cell-based strategies is mainly limited by regulatory burdens and by the necessity to expand cells prior to transplantation resulting in high treatment costs.
For example, they are the implementation of cells and cellular behaviors, such as division, adhesion, simulated physics; all kinds of non-signaling cellular interactions in general.
The PCC architecture intrinsically supports the implementation of small cell energy savings schemes which exploit macro-assisted small cell connection procedures.
The tumor suppressor, p53, regulates several gene expressions that are related to the DNA repair protein, cell cycle arrest and apoptosis induction, which activates the implementation of both cell cycle arrest and induction of apoptosis.
The implementation of fuel cell vehicles requires a supervisory control strategy that manages the power distribution between the fuel cell and the energy storage device.
In the manufacturing cell control domain, these methodologies are directed toward integrating the requirements specification, the design, and the implementation of the cell controller into a consistent process, supported by efficient analysis and development tools.
However, the implementation of these cell sheets without the use of any animal-derived materials is highly desirable.
The implementation of Fuel Cell (FC) systems in transportation systems, as aircrafts, requires some better understanding and mastering of the new generator behaviours in low temperature environments.
The development of efficient reformers for the on-board-production of hydrogen from liquid hydrocarbon fuels like gasoline is one of the challenges for the implementation of fuel cell propulsion systems for automobiles.
As discussed earlier, there are various solutions for the implementation of small cell backhaul, mainly belonging to the two categories of wired and wireless solutions.
