@article {1156,
	title = {Energy Material Network Data Hubs},
	journal = {International Journal of Advanced Computer Science and Applications},
	volume = {12},
	year = {2021},
	abstract = {In early 2015 the United States Department of Energy conceived of a consortium of collaborative bodies based on shared expertise, data, and resources that could be targeted towards the more difficult problems in energy materials research. The concept of virtual laboratories had been envisioned and discussed earlier in the decade in response to the advent of the Materials Genome Initiative and similar scientific thrusts. To be effective, any virtual laboratory needed a robust method for data management, communication, security, data sharing, dissemination, and demonstration to work efficiently and effectively for groups of remote researchers. With the accessibility of new, easily deployed cloud technology and software frameworks, such individual elements could be integrated, and the required collaboration architecture is now possible. The developers have leveraged open-source software frameworks, customized them, and merged them into a platform to enable collaborative energy materials science, regardless of the geographic dispersal of the people and resources. After five years in operations, the systems are demonstratively an effective platform for enabling research within the Energy Material Networks (EMN). This paper will show the design and development of a secured scientific data sharing platform, the ability to customize the system to support diverse workflows, and examples of the enabled research and results connected with some of the Energy Material Networks.},
	keywords = {cloud computing, consortium, data management, Energy materials research, network, virtual laboratories},
	doi = {10.14569/IJACSA.2021.0120677},
	url = {http://dx.doi.org/10.14569/IJACSA.2021.0120677},
	author = {Robert R. White and Kristin Munch and Nicholas Wunder and Nalinrat Guba and Chitra Sivaraman and Kurt M. Van Allsburg and Huyen Dinh and Courtney Pailing}
}
@article {1181,
	title = {Advancement of Proton-Conducting Solid Oxide Fuel Cells and Solid Oxide Electrolysis Cells at Idaho National Laboratory (INL)},
	journal = {ECS Transactions},
	volume = {91},
	year = {2019},
	month = {07/2019},
	pages = {1029{\textendash}1034},
	abstract = {Proton conducting ceramics have been considered as a strategic material system used in solid oxide fuel cells and solid oxide electrolysis cells for electricity generation and hydrogen production. The high proton conductivity of protonic electrolyte and rapid development of robust electrode materials have significantly promoted the reduction of feasible operating temperature to intermediate temperature range (400 600 {\textdegree}C), which can attribute to favorable technical and economic advantages when they are compared with conventional oxide-ion conducting electrolyte based solid oxide cell system. In the past few years, Idaho National Laboratory has been devoted to developing advanced electrolyte and electrode materials R\&D, diverse manufacturing capability, and expanding evaluation facility for these applications, aiming to further improve performance, stability and manufacturing cost. There are some remarkable accomplishments achieved on electrode engineering, electrolyte optimization, new material down-selection and large-scale cell fabrication in Idaho National Laboratory.},
	keywords = {BCZYYb7111, HTE, NiO-BaCe0.7Zr0.1Y0.1Yb0.1O3, PrBa0.5Sr0.5Co1.5Fe0.5O3, Protonic conductor, SOEC},
	doi = {10.1149/09101.1029ecst},
	url = {https://doi.org/10.1149/09101.1029ecst},
	author = {Hanping Ding and Wei Wu and Dong Ding}
}
@article {1190,
	title = {Photoelectrochemical water splitting using strain-balanced multiple quantum well photovoltaic cells},
	journal = {Sustainable Energy Fuels},
	volume = {3},
	year = {2019},
	pages = {2837-2844},
	abstract = {Starting from the classical GaInP/GaAs tandem photoelectrochemical water splitting device, higher solar-to-hydrogen efficiencies can be pursued by extending photon absorption to longer wavelengths. We incorporate strain-balanced GaInAs/GaAsP quantum wells into the bottom GaAs junction, to increase the range of photon absorption. The inclusion of 1.34 eV quantum wells in the depletion region of the bottom cell extends the absorption edge to 930 nm. With a corresponding increase in the thickness of the top cell for current matching, the light-limiting photocurrent increases by >8\%. The estimated solar-to-hydrogen efficiency is 13.6 {\textpm} 0.5\%, and we show a pathway to further improvement. With the semiconductor device remaining on the growth substrate, this quantum well architecture may enable improved stability and durability of the photoelectrochemical electrodes.},
	keywords = {durability, National Renewable Energy Lab (NREL), PEC, photoelectrochemical water splitting},
	doi = {10.1039/C9SE00276F},
	url = {http://dx.doi.org/10.1039/C9SE00276F},
	author = {Steiner, Myles A. and Barraugh, Collin D. and Aldridge, Chase W. and Alvarez, Isabel Barraza and Friedman, Daniel J. and Ekins-Daukes, Nicholas J. and Deutsch, Todd G. and Young, James L.}
}
