학술논문

Automation meta-system applied to smart grid convergence of low voltage distribution legacy grids
Document Type
Conference
Source
2017 IEEE International Conference on Smart Energy Grid Engineering (SEGE) Smart Energy Grid Engineering (SEGE), 2017 IEEE International Conference on. :400-413 Aug, 2017
Subject
Communication, Networking and Broadcast Technologies
Computing and Processing
Engineering Profession
Nuclear Engineering
Power, Energy and Industry Applications
Robotics and Control Systems
Transportation
Electronic mail
Conferences
Low voltage distribution grid automation
smart circuit
smart grid convergence
Language
Abstract
This paper presents the description of a system model (meta-system) that specifies structural and functional aspects of a middleware architecture, such as: composition elements, interfaces, interaction rules, protocols, etc. The implementation of such middleware architecture (middleware-layer) aim to make a retrofitting in the conventional low voltage circuits to convert them into smart circuits and, thus, enable the implementation of a set of functionalities compatible with (adhering to) the definition requirements of a smart grid (ex.: self-healing, energy efficiency, distributed generation compatibility, resilience, renewable energies support, distribution systems operation automation, load management, demand side management, demand response and generation curtailment). This process will be here referred to as Convergence Smart Grid. The meta-system proposed establishes a basic platform consisting of interoperable hardware and software units, which supervise and/or control operating variables in each of the different component segments of the distribution system and according to their particularities. This solution was developed under a systemic approach, which enables the implementation of a wide scope of functionalities and resources aligned to the smart grid paradigm; it also establishes a coherent and harmonious automation solution with structural and functional aspects of low voltage distribution grids that are known to be systemic; more specifically, those that can be submitted to processes tele-supervision, remote and electronic control.