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  4. EXC 3120 BlueMat - Research Topic D3: Hydrovoltaics
 
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Projekt Titel
EXC 3120 BlueMat - Research Topic D3: Hydrovoltaics
Funding code
945.03-1109
Startdatum
January 1, 2026
Enddatum
December 31, 2032
Gepris ID
533771286
Übergeordnetes Projekt
EXC 3120 - BlueMat - Wassergesteuerte Materialien  
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Funder
Deutsche Forschungsgemeinschaft (DFG)  
Funding Program
Exzellenzcluster (ExStra)
Institut
Material- und Röntgenphysik M-2  
Geohydroinformatik B-9  
Grenzflächenphysik und -technologie M-29  
Principal Investigator
Huber, Patrick  orcid-logo
Rossi, Mariana  
Co-Investigators
Fröba, Michael  
Meißner, Robert  orcid-logo
Prisle, Nønne  
Shokri, Nima  
Involved external organisation
Max-Planck-Institut für Struktur und Dynamik der Materie  
Universität Hamburg  
Deutsches Elektronen-Synchrotron DESY  
BlueMat aims to revolutionize hydrovoltaics by developing next-generation hydrovoltaic material technologies. Our goal within D3 is to create high-performance, multiscale, porous materials and innovative hydrovoltaic device architectures to efficiently harness electrical energy from humidity variations, imbibition and drying cycles. We will systematically evaluate their energy conversion performance under varying humidity levels, temperatures, and operating conditions. Our research will focus on reducing imbibition–drying cycle times while enhancing energy output by leveraging humidity variations and low-grade waste heat. This interdisciplinary program aims to advance hydrovoltaics through cutting-edge experimentation, addressing key challenges, and unlocking new opportunities for sustainable energy generation from ambient environmental sources. We will develop highly adapted material architectures to optimize power, addressing issues like minimum friction, salt crystallization upon drying, or evaporation using aqueous electrolytes or water itself. The efforts in D3 aim to improve energy conversion efficiency, durability, and scalability of hydrovoltaic applications, paving the way for widespread deployment in diverse environmental settings. The key scientific questions include: How can we exploit novel hydrovoltaic mechanisms to generate energy from cyclic imbibition and desiccation of electrolyte-infused porous media? How do non-equilibrium fluid dynamics, surface chemistry, open-circuit potential, and other fundamental factors, including the interaction of imbibition and drying influenced by pore characteristics and external stimuli, affect the proposed scheme? How can we optimize the performance of the hydrovoltaic scheme using concepts like hierarchically porous electrodes and adaptive pore wall coatings?
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