Title :
V2G electric power capacity estimation and ancillary service market evaluation
Author :
Chukwu, Uwakwe C. ; Mahajan, Satish M.
Author_Institution :
Electr. & Comput. Eng. Dept., Tennessee Technol. Univ., Cookeville, TN, USA
Abstract :
Sharing power assets between transportation and power system is the focus of V2G that can create a compelling new economics. Projected V2G penetration levels across utility customers are a promising clue that V2G may dominate the market in the near future. This will herald evolution of V2G parking lots. This paper describes mathematical model for estimating the electric power capacity of a V2G parking lot system. The electric vehicle demand/supply model was formulated as a queuing theory problem, exhibiting stochastic characteristics. This paper addresses the modeling of V2G power demand and supply as well as evaluation of its electricity market potentials. Promising simulation results are gained leading to a claim that V2G electric power capacity can be substantial with attractive ancillary services revenue opportunities. The proposed model was tested using Tesla Roadster EV and PHEV versions. Results could be useful for power system software developers seeking base case data capacity estimation of V2G parking lots. An expression for grid gain factor was developed, and analysis showed that 40.3% optimal gain factor is obtainable.
Keywords :
electric vehicles; power engineering computing; power grids; power markets; queueing theory; stochastic processes; supply and demand; transportation; PHEV; Tesla Roadster EV; V2G electric power capacity estimation; V2G parking system; V2G penetration level; V2G power demand; V2G power supply; ancillary service market evaluation; data capacity; electric vehicle demand-supply model; electricity market; grid gain factor; mathematical model; optimal gain factor; power system economics; power system software developer; queuing theory problem; stochastic characteristics; transportation; utility customer; Batteries; Discharges; Economics; Power demand; Stochastic processes; Vehicles; Microgrid; Power market; Queuing theory; Stochastic modeling; V2G;
Conference_Titel :
Power and Energy Society General Meeting, 2011 IEEE
Conference_Location :
San Diego, CA
Print_ISBN :
978-1-4577-1000-1
Electronic_ISBN :
1944-9925
DOI :
10.1109/PES.2011.6039703