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<urlset xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xmlns="http://www.sitemaps.org/schemas/sitemap/0.9" xmlns:image="http://www.google.com/schemas/sitemap-image/1.1" xsi:schemaLocation="http://www.sitemaps.org/schemas/sitemap/0.9 http://www.sitemaps.org/schemas/sitemap/0.9/sitemap.xsd"><url><loc>https://kinmunwong.me/spatial-distribution-of-neutral-oxygen-vacancies-on-zno-nanowire-surfaces-an/</loc><lastmod>2015-05-03T23:59:41+00:00</lastmod><changefreq>weekly</changefreq><priority>0.6</priority></url><url><loc>https://kinmunwong.me/aa/</loc><lastmod>2015-05-03T23:59:06+00:00</lastmod><changefreq>weekly</changefreq><priority>0.6</priority></url><url><loc>https://kinmunwong.me/2013/06/21/influence-of-the-oxygen-vacancies-on-the-phase-transformation-of-zno-0001-nanosheets-from-graphite-like-structure-to-wurtzite-lattice-3/</loc><image:image><image:loc>https://kinmunwong.me/wp-content/uploads/2014/03/additional-image-for-j-appl-phys-113-014304-2013.jpg</image:loc><image:title>Figure 1</image:title><image:caption>Top Panel - Perfect ZnO nanosheet (without oxygen vacancies) in the graphite-like structure and Bottom Panel – Phase Transformation of the defective ZnO nanosheet from the graphite-like structure to the wurtzite structure with oxygen vacancies at the top Zn-terminated (0001) surface [K. M. Wong, et al., J. Appl. Phys. 113, 014304 (2013).]</image:caption></image:image><lastmod>2015-05-03T23:42:53+00:00</lastmod><changefreq>monthly</changefreq></url><url><loc>https://kinmunwong.me/2014/03/19/spectroscopic-scanning-capacitance-microscopy-as-a-viable-nano-characterization-technique-for-obtaining-the-electronic-structure-in-an-individual-ge-nanodot/</loc><image:image><image:loc>https://kinmunwong.me/wp-content/uploads/2014/03/figure-for-nanodot1.jpg</image:loc><image:title>Figure for nanodot</image:title><image:caption>(a) Forward sweep (in blue) and reverse sweep (in red) of the SCM spectroscopic dC/dV spectra of the pyramidal-shaped Ge nanodot at the scan rate of 0.1 V/s. (b) Forward sweep (in blue) and reverse sweep (in red) of the SCM spectroscopic dC/dV spectra of the ellipsoidal-shaped Ge nanodot at the scan rate of 0.1 V/s. (c) Electronic structure of the two germanium nanodot with different shapes [K. M. Wong, Jpn. J. Appl. Phys. 48, 085002 (2009).]</image:caption></image:image><lastmod>2015-05-03T23:42:06+00:00</lastmod><changefreq>monthly</changefreq></url><url><loc>https://kinmunwong.me/2014/03/19/a-combined-confocal-microscopy-measurement-and-first-principle-calculation-for-investigating-the-spatial-distribution-of-neutral-oxygen-vacancies-on-zno-nanowire-surfaces/</loc><image:image><image:loc>https://kinmunwong.me/wp-content/uploads/2014/07/figure-for-nanowire.jpg</image:loc><image:title>Figure for nanowire</image:title><image:caption>(a) Schematic diagram depicting the (0001) polar and (10-10) non-polar surfaces of a ZnO nanowire. (b) Spatial distribution of the CPL intensity along the blue line on the (0001) surface. (c) Spatial distribution of the oxygen vacancies defect formation energy along a 6 x 1 x 1 SS approximating the cross section of the ZnO NW [K. M. Wong, et al., J. Appl. Phys. 114, 034901 (2013).]</image:caption></image:image><lastmod>2015-05-03T23:39:04+00:00</lastmod><changefreq>monthly</changefreq></url><url><loc>https://kinmunwong.me/about/</loc><lastmod>2015-05-03T23:32:49+00:00</lastmod><changefreq>weekly</changefreq><priority>0.6</priority></url><url><loc>https://kinmunwong.me</loc><changefreq>daily</changefreq><priority>1.0</priority><lastmod>2015-05-03T23:59:41+00:00</lastmod></url></urlset>
