Defect Driven Opto-Critical Phases Tuned for All-Solar Utilization

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Abstract

Materials imbued with uniformly dispersed, photo-responsive nanoparticles are instrumental in sustainable energy and photonic applications. Conventional methods, however, constrain their all-solar response. An innovative alternative is proposed: submerged photo-synthesis of crystallites (SPsC). It is shown that strategic doping with copper and oxygen vacancies can induce opto-critical phases from the nonstoichiometric tungstic acids (WO3·H2O). These opto-critical phases enable a dynamic equilibrium shift in lattice defect stabilization, facilitating an unprecedented a whole solar wavelength response. This response manifests as photothermal, photo-assisted water evaporation, and photo-electrochemical characteristics. Harnessing all-solar energy, this one-pot SPsC strategy may steer the design and development of advanced oxide materials, enhancing functionality across diverse application domains.

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Jeem, M., Hayano, A., Miyashita, H., Nishimura, M., Fukuroi, K., Lin, H. I., … Watanabe, S. (2023). Defect Driven Opto-Critical Phases Tuned for All-Solar Utilization. Advanced Materials, 35(46). https://doi.org/10.1002/adma.202305494

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