IEC 62559-2 USE CASE TEMPLATE-BASED SMART GRID ARCHITECTURE ANALYTICS

2021 ◽  
Author(s):  
J. Schütz ◽  
M. Clausen ◽  
M. Uslar ◽  
J. M. Gómez
Author(s):  
J. Trefke ◽  
S. Rohjans ◽  
M. Uslar ◽  
S. Lehnhoff ◽  
L. Nordstrom ◽  
...  

Author(s):  
Marion Gottschalk ◽  
Mathias Uslar ◽  
Christina Delfs

2019 ◽  
Vol 109 (05) ◽  
pp. 301-306
Author(s):  
A. Tristan ◽  
A. Emde ◽  
M. Reisinger ◽  
M. Stauch ◽  
A. Sauer

Durch den Übergang in Smart Grids erhalten Stromnetze die notwendige Flexibilität, um auf die steigende Volatilität der Stromversorgung zu reagieren. Das standardisierte Smart-Grid-Architecture-Modell und die Use-Case-Methodik dienen dabei als Rahmen, um Smart Grids zu entwickeln. Ein methodischer Rahmen für den Aufbau von Industrial Smart Grids fehlt derzeit noch, ist aber besonders notwendig, um Energieflexibilitätsmaßnahmen für Industrieanlagen umzusetzen. Der hier vorgestellte methodische Ansatz liefert eine Blaupause für den Aufbau eines Industrial Smart Grid für Energieflexibilität. Mithilfe der Anpassung des Smart-Grid-Architecture-Modells und der Use-Case-Methodik wird ein Industrial-Smart-Grid-Architecture-Modell umgesetzt.   Through their transition into Smart Grids, electrical power grids gain the neccesary flexibiltiy to respond to increasing electrical supply volatility. The standardized Smart Grid Architecture Model and Use Case Methodology serve as framework to develop Smart Grids. Currently, there is still a lack of such a methodical framework for setting up Industrial Smart Energy Grids and it is particularly necessary to implement energy flexibility measures in industrial plants. The methodical approach presented here provides a blueprint for building an Industrial Smart Grid for energy flexibility by adapting the Smart Grid Architecture Model and the use case methodology .


2017 ◽  
Vol 2017 (1) ◽  
pp. 1866-1870 ◽  
Author(s):  
Mazheruddin H. Syed ◽  
Efren Guillo-Sansano ◽  
Steven M. Blair ◽  
Graeme M. Burt ◽  
Thomas I. strasser ◽  
...  

Energies ◽  
2020 ◽  
Vol 13 (16) ◽  
pp. 4223
Author(s):  
Katja Sirviö ◽  
Kimmo Kauhaniemi ◽  
Aushiq Ali Memon ◽  
Hannu Laaksonen ◽  
Lauri Kumpulainen

The operation of microgrids is a complex task because it involves several stakeholders and controlling a large number of different active and intelligent resources or devices. Management functions, such as frequency control or islanding, are defined in the microgrid concept, but depending on the application, some functions may not be needed. In order to analyze the required functions for network operation and visualize the interactions between the actors operating a particular microgrid, a comprehensive use case analysis is needed. This paper presents the use case modelling method applied for microgrid management from an abstract or concept level to a more practical level. By utilizing case studies, the potential entities can be detected where the development or improvement of practical solutions is necessary. The use case analysis has been conducted from top-down until test use cases by real-time simulation models. Test use cases are applied to a real distribution network model, Sundom Smart Grid, with measurement data and newly developed controllers.. The functional analysis provides valuable results when studying several microgrid functions operating in parallel and affecting each other. For example, as shown in this paper, ancillary services provided by an active customer may mean that both the active power and reactive power from customer premises are controlled at the same time by different stakeholders.


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