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Adv. Funct. Mater. 2023, 33, 2211288DOI: 10.1002/adfm.202211288In the original version of this article, in Figure 7a, image panels under "Day 3" were duplicated due to an editing error.The correct Figure 7 is presented as follows:GRAPHThis correction does not affect the results and conclusions of this work.The authors apologize for any inconvenience caused.By Robyn Goodrich; Youyi Tai; Zuyang Ye; Yadong Yin and Jin NamReported by Author; Author; Author; Author; Author [Extracted from the article]

Large-scale photonic crystals, liquid colloidal crystals, pattern, phase reconfigure, structural coloration This strategy can produce thin films with brilliant structural color patterns over a meter in size within minutes, holding great potential to revolutionize the coloration technology in the textile industry. Keywords: large-scale photonic crystals; liquid colloidal crystals; pattern; phase reconfigure; structural coloration EN large-scale photonic crystals liquid colloidal crystals pattern phase reconfigure structural coloration 1 1 1 05/12/21 20210510 NES 210510 In article number 2010746, Jianzhong Shao, Yadong Yin, and co-workers report an efficient strategy to produce large-scale photonic crystal films on flexible substrates for structural coloration by shear-induced assembly of pre-crystallized liquid colloidal crystals. [Extracted from the article]

The warrior with a shield represents a unique Au–AgI dimeric nanostructure that is developed for sensitive and selective colorimetric detection of H2S. Upon attack by H2S, AgI (the shield) converts to Ag2S, inducing a plasmonic shift of the connected Au nanoparticle (the warrior). The Au nanoparticle changes its color depending on the concentration of the sulfide, thus enabling a naked‐eye readout, as described by Jingbin Zeng, Yadong Yin, and co‐workers in article number 1800515. [ABSTRACT FROM AUTHOR]

In the article number 1702324, Qingfa Wang, Yadong Yin, and co‐workers describe a self‐templating method for fabricating CoO‐MoO2 nanocages with porous shells, which enable fast mass transport and enhanced electric conductivity, both benefiting their catalytic efficiency in the oxygen evolution reaction. The image illustrates the generation of molecular oxygen upon the catalytic decomposition of water molecules on the surface of nanocages. [ABSTRACT FROM AUTHOR]