Title :
A hierarchical networked micro-simulator to study grid-integration of renewables and electric vehicles
Author :
Chakraborty, Soumyo V. ; Shukla, Sandeep K. ; Thorp, James
Author_Institution :
Dept. of Electr. & Comput. Eng., Virginia Tech, Blacksburg, VA, USA
Abstract :
The effect of integrating intermittent renewable generation such as wind and solar, as well as plug-in electric vehicles (PEVs) on a grid is an important area of study. Renewable generation depends on weather. Energy consumption, storage, and emergency usage of battery-stored power in PEVs are dependent on the spread of such vehicles in a geographical area, commute patterns, and hours of long-term parking. These are stochastic in nature. We have developed a hierarchical networked micro-simulation environment to characterize their effect on the grid´s load-carrying capacity, reliability of unit commitment and planning, and boundaries of grid safety, etc. We have used this micro-simulation environment for a number of studies based on 4-year real data from New York City´s weather and load profiles, projected PEV population, and current commute profiles. In this paper, we describe our micro-simulator´s architecture, and its ability to scale various abstraction levels depending on the accuracy needed, study objective, and computational time and resources.
Keywords :
battery powered vehicles; battery storage plants; electrical safety; energy consumption; energy storage; power generation dispatch; power generation planning; power generation reliability; power generation scheduling; power grids; power system simulation; solar power stations; wind power plants; New York City weather; battery-stored power; energy consumption; energy storage; grid load-carrying capacity effect; grid safety boundary; hierarchical networked microsimulation environment; intermittent renewable generation; plug-in electric vehicle; power system planning; power system reliability; projected PEV population; renewable grid-integration; solar generation; time 4 year; unit commitment; wind generation; Computational modeling; Conductors; Data models; Generators; Load modeling; Meteorology; Reliability; grid integration; load-carrying capacity; microsimulator; plug-in electric vehicles; renewable energy;
Conference_Titel :
Modeling and Simulation of Cyber-Physical Energy Systems (MSCPES), 2013 Workshop on
Conference_Location :
Berkeley, CA
Print_ISBN :
978-1-4799-1304-6
DOI :
10.1109/MSCPES.2013.6623321