Abstract
Original scientific paper This paper is an effort towards constructing a comprehensive model for the smart grid as a network of networks with the ability of evaluating events in presence of every smart grid feature. To this end, the network modelling laws are employed to attain a proper structure for the model, the automata theory is used to explain the performance of the proposed model, and the hybrid function theory is utilized to define an appropriate mathematical description for it. By evaluating the smart grid cooperative processes, and determining the role of special smart grid features in these processes, a six-layered hierarchical structure is chosen. Each layer of this structure is considered as an automaton and its autonomous performance is described by a hybrid function, mathematically. The composition of these six hybrid functions introduces the final formulation of the model. To verify the suitability of the proposed model the mechanism of the smart load management strategy is captured.
Highlights
The main goal of a smart grid is to achieve a perfect power system by providing new digital technologies, utilizing economic incentive programs, and sending control signals to its active members
The security is a collection of knowledge, solutions and standards related to the secure performance of the power system and the cyber security of high degree of connectivity in smart grids
5.2 The complete Hybrid Composite Cross Layer Model (HCCL) model where j denotes the index of each sub-function of the hybrid function F5, Ν denotes the set of all integer numbers, f5j denotes the selected objective function which is related to the entered request, M5 is the number of functions that denote services of the fifth layer, d(t) denotes the power demand at time t, Plossh represents the power loss at hour h, Dmax is the maximum allowable daily peak demand, and D(h) denotes the total consumption at hour h
Summary
The main goal of a smart grid is to achieve a perfect power system by providing new digital technologies, utilizing economic incentive programs, and sending control signals to its active members The realization of this goal is possible in the presence of bidirectional communication infrastructure which revolutionizes the smart grid to an integrated infrastructure of computation, networking, and energy exchange. An appropriate mathematical formulation is introduced to describe the performance of the proposed model in general manner which gives a wide degrees of freedom for adjusting the parameters of the proposed model to the studied problem To this end, some knowledge and techniques from other disciplines are applied innovatively to the smart grid.
Sign-in/Register to view highlights & summary Sign-in/Register to access full text options 
Free) 
Talk to us
Join us for a 30 min session where you can share your feedback and ask us any queries you have
Schedule a call
