Abstract
Fabrication of macroscopic nanoporous metallic networks is challenging, because it demands fine structures at the nanoscale over a large-scale. A technique to form pure scalable networks is introduced. The networked-metals (“Netals”) exhibit a strong interaction with light and indicate a large fraction of hot-electrons generation. These hot-electrons are available to derive photocatalytic processes.
Errata:
In the RhB Degradation part of the Experimental Section, the concentration of RhB used in the experiments was incorrectly reported. The concentration is hereby corrected to read 10−5 M. The text should thus read:
“The experiments were performed at ambient temperature and pressure using Xe lamp, 175 W (Lambda). The concentration of RhB in all solutions was C0 = 10−5 M.” The main conclusions are unaffected and the experiments will still work at the lower concentration.
Errata:
In the RhB Degradation part of the Experimental Section, the concentration of RhB used in the experiments was incorrectly reported. The concentration is hereby corrected to read 10−5 M. The text should thus read:
“The experiments were performed at ambient temperature and pressure using Xe lamp, 175 W (Lambda). The concentration of RhB in all solutions was C0 = 10−5 M.” The main conclusions are unaffected and the experiments will still work at the lower concentration.
Original language | English |
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Article number | 1604018 |
Number of pages | 7 |
Journal | Advanced Materials |
Volume | 29 |
Issue number | 7 |
DOIs | |
State | Published - 17 Feb 2017 |
Keywords
- disordered-networks
- hot-electrons
- metallic networks
- nanoporous-metals
- photocatalysis
- plasmonics
All Science Journal Classification (ASJC) codes
- Mechanics of Materials
- Mechanical Engineering
- General Materials Science