document.write( "<CENTER><TABLE WIDTH=100% BORDER=1 CELLPADDING=5 CELLSPACING=0 BORDERCOLOR=#663333><TR BGCOLOR=#663333><TD HEIGHT=30 ALIGN=right><FONT COLOR=white SIZE=+1>Today's Paper</FONT>　<FONT COLOR=lightgrey> published (online)/received/accepted/etc on August 2 （2 publications）《WoS citation》<INPUT TYPE=button VALUE='Publication Page' ONCLICK=location.href='/cgi-bin/publication/db_publication_e.cgi?check_05=CHECKED&order=descent&showCitation=CHECKED'></FONT></TD></TR></TABLE></CENTER><CENTER><TABLE WIDTH=100% BORDER=1 CELLPADDING=3 CELLSPACING=0 BORDERCOLOR=#663333 TITLE='Iron(III) oxide (Fe2O3) thin film was prepared on ITO−deposited glass substrates by sol−gel method.　The　starting sols were obtained by the partial hydrolysis of iron(III) tributoxide in the presence and absence of acetylacetone. Dopants (alkoxides of Si (IV) and　Mg(II)) were added before hydrolysis. The films were characterized to be amorphous Fe2O3 by ultraviolet and visible spectroscopy, X−ray diffraction, differential thermal analysis, and thermal gravimetry. Photoanodic current observed in neutral aqueous solution increased in the following order; (Mg− doped) &lt; (undoped) &lt; (Si−doped). Corrosion of the films by cathodic polarization was observed in the dark. Action spectrum revealed that both direct and indirect band−gap excitation caused the photocurrent.'><TR BGCOLOR=#663333><TD COLSPAN= VALIGN=middle popup_e> <SPAN CLASS=large><FONT COLOR=white><A NAME=''></A>■ FEO・1989 (full paper)　《4》 FUNCTI_C［received 1989/08/02］</FONT><IMG SRC='/image/misc/oaLogo.png' HEIGHT=15 VARIGN=bottom> </SPAN></TD></TR><TR><TD VALIGN=middle BGCOLOR=#FFFFDD><B>Ohtani, B.</B>*; Kato, N.; Nishimoto, S.-i.; Kagiya, T., Photoelectrochemical Property of Iron(III) Oxide Thin Film Prepared by Sol-Gel Process, <I>Electrochemistry (Denki Kagaku oyobi Kogyo Butsuri Kagaku)</I>, <B>57</B>, 1112-1116 (1989).* [<A HREF='http://dx.doi.org/10.5796/kogyobutsurikagaku.57.1112'>DOI</A>]</TD></TR></TABLE></CENTER><CENTER><TABLE WIDTH=100% BORDER=1 CELLPADDING=3 CELLSPACING=0 BORDERCOLOR=#663333 TITLE='The photocatalytic disinfection (PCD) properties of TiO2 have attracted attention in the research communities because the produced reactive oxygen species (ROS) allow destruction of different types of microbes, such as fungi, bacteria, viruses, algae, unicellular organisms, etc. on surfaces, in water, and in air. However, TiO2 requires UV irradiation to produce the ROS, which limits its photoactivity in indoor environments. Surface-modified TiO2 with small Ag and CuO nanoclusters in a core-shell structure exhibits antifungal properties under dark and visible conditions, possibly because of the interaction between Ag-CuO nanoclusters in the fungi membrane and their penetration, and the co-presence of Cu2+ and Ag+ ions. Therefore, a synergetic effect is obtained with co-modification of TiO2 with silver and copper, and the sample Ag@CuO/TiO2 (core-shell structure of Ag-Cu in a ratio of 1:3) exhibits the highest antifungal activity; that is, fungi growth inhibition is observed for Aspergillus melleus and Penicillium chrysogenum. Moreover, significant inhibitions of the sporulation and generation of droplets, possibly containing mycotoxins and sclerotia under dark and visible exposure, are also obtained.'><TR BGCOLOR=#663333><TD COLSPAN= VALIGN=middle popup_e> <SPAN CLASS=large><FONT COLOR=white><A NAME=''></A>■ MENDE・2019 (Article)　《16》 VISIBL_A［received 2019/08/02］</FONT> </SPAN></TD></TR><TR><TD VALIGN=middle BGCOLOR=#FFFFDD>Mendez Medrano, M. G.*; <B>Kowalska, E.</B>; <B>Endo-Kimura, M.</B>; <B>Wang, K.</B>; <B>Ohtani, B.</B>; Bahena Uribe, D.; Rodriguez Lopez, J.*; Remita, H.*, Inhibition of Fungal Growth using Modified TiO<SUB>2</SUB> with Core@Shell Structure of Ag@CuO Clusters, <I>ACS Appl. Bio Mater.</I>, <B>2</B>, 5626-5633 (2019).* [<A HREF='http://dx.doi.org/10.1021/acsabm.9b00707'>DOI</A>]</TD></TR></TABLE></CENTER>" )