@misc{570d1fc6c35042f9b1cac709c314a30a,
title = "Power Electronics for Electrolyzer Applications to Enable Grid Services",
abstract = "The Power Electronics for Electrolyzer Applications to Enable Grid Services project aims to develop smart converter for dedicated electrolyzer applications to enable grid services via standardization of control interfaces between hydrogen electrolyzer system low-level controls and power converter controls. The project provides additional revenue source for electrolyzer through participation in grid services and reduces the cost of deployment and controls integration through standardization and risk due to supply-chain issues. It also enables the adoption of green hydrogen via standardizing the integration of energy storage, renewables, and distributed energy resources. Furthermore, the work provides a controlled validation environment to evaluate scalable integration solution for hydrogen production technologies, improves overall reliability and maintainability of the electrolyzer system for grid applications, and directly contributes to DOE HFTO's {"}Hydrogen Shot{"} goal.",
keywords = "energy transitions, grid stability, hydrogen electrolyzer, multi-megawatt, OPAL-RT, power conversion, standards, wind-hydro controls",
author = "Rob Hovsapian and Sayonsom Chanda and Mayank Panwar and Yash Agalgaonkar and Sam Sprik and Kazunori Nagasawa and Daniel Leighton",
year = "2023",
language = "American English",
series = "Presented at the 2023 U.S. Department of Energy (DOE) Hydrogen Program Annual Merit Review and Peer Evaluation Meeting (AMR), 5-8 June 2023, Arlington, Virginia",
type = "Other",
}