Multi-Objective Black-Start in ICT-reliant Renewable Energy Systems – Power- and ICT-Fault-tolerant Mitigation Strategies

Applicants Professor Dr. Sebastian Lehnhoff; Professor Dr.-Ing. Hermann de Meer
Subject Area Electrical Energy Systems, Power Management, Power Electronics, Electrical Machines and Drives
Image and Language Processing, Computer Graphics and Visualisation, Human Computer Interaction, Ubiquitous and Wearable Computing
Term from 2017 to 2023
Project identifier Deutsche Forschungsgemeinschaft (DFG) - Project number 360475113
 

Project Description

This project aims at developing a rapid recovery method for ICT-reliant energy systems after a wide-area power loss. A so-called black-start requires delicate coordination between the ICT network, on the one hand, and the power grid, on the other hand. This is challenging, particularly in future multi-modal energy systems, which require flexible control of energy (power) generation and demand thus yielding specific requirements for the communication system -- which is a power consumer itself and dependent on guaranteed power quality. In case of a black-out, the communication network and the power grid have to be brought back to an operational state in parallel -- with both systems delicately interacting with one another.The resulting multi-criteria optimization problem that is investigated within this project is oriented at sequentially resupplying generators and consumers -- adhering to power system stability constraints. The recovery sequence itself influences the properties of the communication system as well as the informational states (measurability and controllability) of the units such that maximizing the controllability of units during a black-start process becomes an important (potentially conflicting) goal.Within this project an autonomous multi-agent-based approach for solving this highly dynamic and interdependent ICT state-sensitive black-start optimization problem is researched.
DFG Programme Priority Programmes
Subproject of SPP 1984:  Hybrid and multimodal energy systems: System theoretical methods for the transformation and operation of complex networks