It's easy to assume that the grid was inspired by a checkered tablecloth in an ambience that more serene than anything New York offers.
Here, it is assumed that the grid impedance is fixed at L g = 0.6 mH.
We assume that the grid would like to form small VPPs, whose power rating is around 150 kW.
We assume that the grid is fine enough that Θ can represent the true source locations, e.g., ({theta _{i_{1}},theta _{i_{2}},ldots,theta _{i_{Q}}}in Theta ).
In this state, it is assumed that the grid is supplying required energy and the RES are producing energy as per the nominal rating.
While simulating the proposed system, it was assumed that the grid is supplying rated energy, and RES produces nominal power throughout the project lifecycle, which is not obvious.
It was assumed that the grid's attacker wishes to drive the voltage at bus 11 to unacceptably low levels, so that the loads at this bus would not be served, and that the attacker has only limited grid access.
We assume that the grid is always willing to buy the energy offered by EVs, i.e., whenever an EV has energy to be sold, the grid will buy it.
Our analysis assumed that the grid code is hierarchical, with large grids resolving the spatial ambiguity created by the multiple firing fields of the small grids that deliver precision of location.
We take a simpler definition of the resolution (as the largest scale divided by the smallest scale the system can discriminate), assume that the grid encodes location with a restricted range, and then seek to minimize the resources (number of neurons) required to achieve a given resolution within this range.
