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Your search keyword '"Creatore, Mariadriana"' showing total 3 results
Start Over Author "Creatore, Mariadriana" Journal advanced materials technologies
3 results on '"Creatore, Mariadriana"'

1. Electrochemical Sensing with Spatially Patterned Pt Octahedra Electrodes (Adv. Mater. Technol. 5/2024)

Author

Jonker, Dirk, primary, Eyovge, Cavit, additional, Berenschot, Erwin, additional, Di Palma, Valerio, additional, Wasserberg, Dorothee, additional, Michel‐Souzy, Sandra, additional, Jonkheijm, Pascal, additional, Krol, Silke, additional, Gardeniers, Han, additional, Creatore, Mariadriana, additional, Tas, Niels, additional, and Susarrey‐Arce, Arturo, additional

Published
2024
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2. Efficient Continuous Light‐Driven Electrochemical Water Splitting Enabled by Monolithic Perovskite‐Silicon Tandem Photovoltaics

Author

Datta, Kunal, primary, Branco, Bruno, additional, Zhao, Yifeng, additional, Zardetto, Valerio, additional, Phung, Nga, additional, Bracesco, Andrea, additional, Mazzarella, Luana, additional, Wienk, Martijn M., additional, Creatore, Mariadriana, additional, Isabella, Olindo, additional, and Janssen, René A. J., additional

Published
2022
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3. Efficient Continuous Light‐Driven Electrochemical Water Splitting Enabled by Monolithic Perovskite‐Silicon Tandem Photovoltaics.

Author

Datta, Kunal, Branco, Bruno, Zhao, Yifeng, Zardetto, Valerio, Phung, Nga, Bracesco, Andrea, Mazzarella, Luana, Wienk, Martijn M., Creatore, Mariadriana, Isabella, Olindo, and Janssen, René A. J.

Subjects
SILICON solar cells, SOLAR cells, PHOTOVOLTAIC power generation, HYDROGEN as fuel, CONTINUOUS flow reactors, SOLAR energy, ENERGY conversion
Abstract

Solar‐assisted water electrolysis is a promising technology for storing the energy of incident solar irradiation into hydrogen as a fuel. Here, an integrated continuous flow electrochemical reactor coupled to a monolithic perovskite‐silicon tandem solar cell is demonstrated that provides light‐driven electrochemical solar‐to‐hydrogen conversion with an energy conversion efficiency exceeding 21% at 1‐Sun equivalent light intensity and stable operation during three simulated day‐night cycles. [ABSTRACT FROM AUTHOR]

Published
2023
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