The next generation of power grids, known as ”smart grids,"
was created as a result of the application of digital transformation to the energy sector.
Using automated and distributed controls, contemporary communication,
and cutting-edge sensing technologies, they are described as a modern electric power grid architecture for
enhanced efficiency, dependability, and safety
This process of improvement is consistent with the objectives of Advanced Distribution Automation (ADA), and future optimal grid construction will be made possible by the research's ongoing progress. Research priorities include monitoring grid equipment, fault location, isolation, and restoration, including renewable energy, electric vehicles, grid reconfiguration, adaptive protections, volt/var control, metering, event recording, and communica- tions infrastructure. Various monitoring and control from experiment stations spread over the grid are collected in real time by the Supervisory Control and Data Acquisition (SCADA) system. Such challenges have also been clearly defined in standardization.
Numerous smart grid applications are being used in an effort to increase dependability and power quality, which calls for a crucial set of protection tools to monitor and regulate numerous relaying operations. Electrical engineering education has traditionally placed a high premium on this context, and recent developments in mode- ling, simulation, and lab platforms have made significant strides in this area.
LABORATORY TABLE CATALOG
Solar Power Plant
PV Characteristics
Stand-Alone Renewable Energy Systems
Solar Panel I-V Curve Simulator Micro Grid-connected PV System