{"id":867,"date":"2023-02-03T22:53:18","date_gmt":"2023-02-03T15:53:18","guid":{"rendered":"http:\/\/physics.sc.kku.ac.th\/?page_id=867"},"modified":"2023-02-24T18:22:04","modified_gmt":"2023-02-24T11:22:04","slug":"%e0%b8%a8-%e0%b8%94%e0%b8%a3-%e0%b9%80%e0%b8%ad%e0%b8%81%e0%b8%9e%e0%b8%a3%e0%b8%a3%e0%b8%93-%e0%b8%aa%e0%b8%a7%e0%b8%b1%e0%b8%aa%e0%b8%94%e0%b8%b4%e0%b9%8c%e0%b8%8b%e0%b8%b4%e0%b8%95%e0%b8%b1","status":"publish","type":"page","link":"https:\/\/physics.sc.kku.ac.th\/?page_id=867","title":{"rendered":"\u0e28. \u0e14\u0e23.\u0e40\u0e2d\u0e01\u0e1e\u0e23\u0e23\u0e13 \u0e2a\u0e27\u0e31\u0e2a\u0e14\u0e34\u0e4c\u0e0b\u0e34\u0e15\u0e31\u0e07"},"content":{"rendered":"<section class=\"wpb-content-wrapper\"><p>[vc_row][vc_column][vc_column_text animation=&#8221;bounceInDown&#8221;]<\/p>\r\n<div class=\"wp-block-columns is-layout-flex wp-container-core-columns-is-layout-9d6595d7 wp-block-columns-is-layout-flex\">\r\n<div class=\"wp-block-column is-layout-flow wp-block-column-is-layout-flow\" style=\"flex-basis: 25%;\">\r\n<figure class=\"wp-block-image size-large\"><img loading=\"lazy\" decoding=\"async\" width=\"748\" height=\"1024\" class=\"wp-image-203\" src=\"http:\/\/physics.sc.kku.ac.th\/wp-content\/uploads\/2023\/01\/Ekaparn-748x1024.png\" alt=\"\" srcset=\"https:\/\/physics.sc.kku.ac.th\/wp-content\/uploads\/2023\/01\/Ekaparn-748x1024.png 748w, https:\/\/physics.sc.kku.ac.th\/wp-content\/uploads\/2023\/01\/Ekaparn-219x300.png 219w, https:\/\/physics.sc.kku.ac.th\/wp-content\/uploads\/2023\/01\/Ekaparn-768x1051.png 768w, https:\/\/physics.sc.kku.ac.th\/wp-content\/uploads\/2023\/01\/Ekaparn-1122x1536.png 1122w, https:\/\/physics.sc.kku.ac.th\/wp-content\/uploads\/2023\/01\/Ekaparn-1496x2048.png 1496w, https:\/\/physics.sc.kku.ac.th\/wp-content\/uploads\/2023\/01\/Ekaparn.png 1600w\" sizes=\"auto, (max-width: 748px) 100vw, 748px\" \/><\/figure>\r\n<p><\/p>\r\n<\/div>\r\n\r\n\r\n\r\n<div class=\"wp-block-column is-layout-flow wp-block-column-is-layout-flow\" style=\"flex-basis: 50%;\">\r\n\r\n\r\n<h2 class=\"wp-block-heading\">\u00a0<\/h2>\r\n<h2>\u0e1b\u0e23\u0e30\u0e27\u0e31\u0e15\u0e34<\/h2>\r\n\r\n\r\n\r\n<ul class=\"wp-block-list\">\r\n<li style=\"list-style-type: none;\">\r\n<ul>\r\n<li><strong>2522<\/strong> \u0e27\u0e17.\u0e1a. (\u0e1f\u0e34\u0e2a\u0e34\u0e01\u0e2a\u0e4c) \u0e04\u0e13\u0e30\u0e27\u0e34\u0e17\u0e22\u0e32\u0e28\u0e32\u0e2a\u0e15\u0e23\u0e4c \u0e21\u0e2b\u0e32\u0e27\u0e34\u0e17\u0e22\u0e32\u0e25\u0e31\u0e22\u0e02\u0e2d\u0e19\u0e41\u0e01\u0e48\u0e19<\/li>\r\n\r\n\r\n\r\n<li><strong>2526 <\/strong>\u0e27\u0e17.\u0e21. (\u0e40\u0e04\u0e21\u0e34\u0e40\u0e0a\u0e34\u0e07\u0e1f\u0e34\u0e2a\u0e34\u0e01\u0e2a\u0e4c)\u00a0 \u0e21\u0e2b\u0e32\u0e27\u0e34\u0e17\u0e22\u0e32\u0e25\u0e31\u0e22\u0e21\u0e2b\u0e34\u0e14\u0e25<\/li>\r\n\r\n\r\n\r\n<li><strong>2531<\/strong> Dr. rer. nat. (Physics) University of Innsbruck, Austria<\/li>\r\n<\/ul>\r\n<\/li>\r\n<\/ul>\r\n<p>\r\n\r\n<strong>\u0e2b\u0e49\u0e2d\u0e07\u0e17\u0e33\u0e07\u0e32\u0e19<\/strong> \u0e2d\u0e32\u0e04\u0e32\u0e23\u0e27\u0e34\u0e17\u0e22\u0e27\u0e34\u0e20\u0e32\u0e2a \u0e0a\u0e31\u0e49\u0e19 4 \u0e04\u0e13\u0e30\u0e27\u0e34\u0e17\u0e22\u0e32\u0e28\u0e32\u0e2a\u0e15\u0e23\u0e4c \u0e21\u0e2b\u0e32\u0e27\u0e34\u0e17\u0e22\u0e32\u0e25\u0e31\u0e22\u0e02\u0e2d\u0e19\u0e41\u0e01\u0e48\u0e19<\/p>\r\n<p>\r\n\r\n<strong>E-mail<\/strong>: ekaphan@kku.ac.th<\/p>\r\n<p>\r\n\r\n<strong>Download CV<\/strong><\/p>\r\n<p><\/p>\r\n<\/div>\r\n\r\n\r\n\r\n<div class=\"wp-block-column is-layout-flow wp-block-column-is-layout-flow\" style=\"flex-basis: 25%;\">\u00a0<\/div>\r\n<p><\/p>\r\n<\/div>\r\n<p>\u00a0<\/p>\r\n<p>[\/vc_column_text][\/vc_column][\/vc_row][vc_row][vc_column][vc_tta_tabs][vc_tta_section title=&#8221;\u0e20\u0e32\u0e1e\u0e23\u0e27\u0e21\u0e07\u0e32\u0e19\u0e27\u0e34\u0e08\u0e31\u0e22&#8221; 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\u0e04.\u0e28. 2007 \u0e40\u0e1b\u0e47\u0e19\u0e01\u0e32\u0e23\u0e2a\u0e31\u0e07\u0e40\u0e04\u0e23\u0e32\u0e30\u0e2b\u0e4c\u0e41\u0e25\u0e30\u0e28\u0e36\u0e01\u0e29\u0e32\u0e25\u0e31\u0e01\u0e29\u0e13\u0e30\u0e40\u0e09\u0e1e\u0e32\u0e30\u0e02\u0e2d\u0e07\u0e42\u0e25\u0e2b\u0e30\u0e2d\u0e2d\u0e01\u0e44\u0e0b\u0e14\u0e4c\u0e2d\u0e19\u0e38\u0e20\u0e32\u0e04\u0e02\u0e19\u0e32\u0e14\u0e19\u0e32\u0e42\u0e19\u0e40\u0e21\u0e15\u0e23\u0e17\u0e35\u0e48\u0e40\u0e19\u0e49\u0e19\u0e17\u0e32\u0e07\u0e14\u0e49\u0e32\u0e19<strong>\u0e2a\u0e21\u0e1a\u0e31\u0e15\u0e34\u0e41\u0e21\u0e48\u0e40\u0e2b\u0e25\u0e47\u0e01\u0e41\u0e25\u0e30\u0e01\u0e32\u0e23\u0e14\u0e39\u0e14\u0e01\u0e25\u0e37\u0e19\u0e41\u0e2a\u0e07 <\/strong>\u0e42\u0e14\u0e22\u0e40\u0e09\u0e1e\u0e32\u0e30\u0e43\u0e19\u0e01\u0e25\u0e38\u0e48\u0e21\u0e02\u0e2d\u0e07\u0e27\u0e31\u0e2a\u0e14\u0e38 \u0e40\u0e1f\u0e23\u0e4c\u0e44\u0e23\u0e15\u0e4c 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\u0e2b\u0e23\u0e37\u0e2d\u0e01\u0e32\u0e23\u0e40\u0e08\u0e37\u0e2d (doping) \u0e14\u0e49\u0e27\u0e22\u0e42\u0e25\u0e2b\u0e30\u0e15\u0e48\u0e32\u0e07\u0e46 \u0e0b\u0e36\u0e48\u0e07\u0e40\u0e19\u0e49\u0e19\u0e17\u0e35\u0e48\u0e01\u0e32\u0e23\u0e43\u0e0a\u0e49\u0e42\u0e25\u0e2b\u0e30\u0e43\u0e19\u0e01\u0e25\u0e38\u0e48\u0e21 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\u0e01\u0e32\u0e23\u0e41\u0e1e\u0e17\u0e22\u0e4c \u0e01\u0e32\u0e23\u0e17\u0e2b\u0e32\u0e23\u00a0 \u0e2a\u0e34\u0e48\u0e07\u0e41\u0e27\u0e14\u0e25\u0e49\u0e2d\u0e21 \u0e2d\u0e38\u0e1b\u0e01\u0e23\u0e13\u0e4c\u0e2d\u0e34\u0e40\u0e25\u0e47\u0e01\u0e17\u0e23\u0e2d\u0e19\u0e34\u0e01\u0e2a\u0e4c \u0e41\u0e25\u0e30\u0e01\u0e32\u0e23\u0e1a\u0e31\u0e19\u0e17\u0e36\u0e01\u0e02\u0e49\u0e2d\u0e21\u0e39\u0e25\u0e14\u0e49\u0e27\u0e22\u0e41\u0e16\u0e1a\u0e41\u0e21\u0e48\u0e40\u0e2b\u0e25\u0e47\u0e01<\/strong> 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\u0e19\u0e2d\u0e01\u0e08\u0e32\u0e01\u0e19\u0e35\u0e49\u0e22\u0e31\u0e07\u0e21\u0e35\u0e1c\u0e25\u0e07\u0e32\u0e19\u0e28\u0e36\u0e01\u0e29\u0e32\u0e27\u0e34\u0e08\u0e31\u0e22\u0e43\u0e19\u0e01\u0e25\u0e38\u0e48\u0e21\u0e27\u0e31\u0e2a\u0e14\u0e38\u0e1e\u0e25\u0e31\u0e07\u0e07\u0e32\u0e19\u0e44\u0e14\u0e49\u0e41\u0e01\u0e48 \u0e01\u0e32\u0e23\u0e1b\u0e23\u0e30\u0e14\u0e34\u0e29\u0e10\u0e4c<strong>\u0e40\u0e0b\u0e25\u0e25\u0e4c\u0e2a\u0e38\u0e23\u0e34\u0e22\u0e30\u0e0a\u0e19\u0e34\u0e14\u0e2a\u0e35\u0e22\u0e49\u0e2d\u0e21\u0e44\u0e27\u0e41\u0e2a\u0e07<\/strong> (Dye sensitized solar cell, DSSC) \u0e17\u0e35\u0e48\u0e43\u0e0a\u0e49\u0e2a\u0e35\u0e2a\u0e01\u0e31\u0e14\u0e08\u0e32\u0e01\u0e18\u0e23\u0e23\u0e21\u0e0a\u0e32\u0e15\u0e34\u0e02\u0e2d\u0e07\u0e02\u0e49\u0e32\u0e27\u0e42\u0e1e\u0e14\u0e2a\u0e35\u0e21\u0e48\u0e27\u0e07\u0e08\u0e32\u0e01\u0e44\u0e23\u0e48\u0e02\u0e2d\u0e07\u0e04\u0e13\u0e30\u0e40\u0e01\u0e29\u0e15\u0e23\u0e28\u0e32\u0e2a\u0e15\u0e23\u0e4c \u0e21\u0e2b\u0e32\u0e27\u0e34\u0e17\u0e22\u0e32\u0e25\u0e31\u0e22\u0e02\u0e2d\u0e19\u0e41\u0e01\u0e48\u0e19 \u0e40\u0e1b\u0e47\u0e19\u0e2a\u0e35\u0e22\u0e49\u0e2d\u0e21\u0e0b\u0e36\u0e48\u0e07\u0e40\u0e1b\u0e47\u0e19\u0e01\u0e32\u0e23\u0e23\u0e32\u0e22\u0e07\u0e32\u0e19\u0e1c\u0e25\u0e01\u0e32\u0e23\u0e27\u0e34\u0e08\u0e31\u0e22\u0e40\u0e1b\u0e47\u0e19\u0e04\u0e23\u0e31\u0e49\u0e07\u0e41\u0e23\u0e01 \u0e19\u0e2d\u0e01\u0e08\u0e32\u0e01\u0e19\u0e35\u0e49\u0e22\u0e31\u0e07\u0e44\u0e14\u0e49\u0e19\u0e33\u0e27\u0e31\u0e2a\u0e14\u0e38\u0e2d\u0e37\u0e48\u0e19\u0e21\u0e32\u0e43\u0e0a\u0e49\u0e17\u0e14\u0e41\u0e17\u0e19\u0e02\u0e31\u0e49\u0e27\u0e40\u0e04\u0e32\u0e19\u0e4c\u0e40\u0e15\u0e2d\u0e23\u0e4c\u0e02\u0e2d\u0e07 DSSC \u0e17\u0e35\u0e48\u0e17\u0e33\u0e08\u0e32\u0e01\u0e42\u0e25\u0e2b\u0e30 Pt \u0e0b\u0e36\u0e48\u0e07\u0e21\u0e35\u0e23\u0e32\u0e04\u0e32\u0e41\u0e1e\u0e07 \u0e40\u0e1e\u0e37\u0e48\u0e2d\u0e25\u0e14\u0e15\u0e49\u0e19\u0e17\u0e38\u0e19\u0e01\u0e32\u0e23\u0e1c\u0e25\u0e34\u0e15\u0e43\u0e2b\u0e49\u0e15\u0e48\u0e33\u0e25\u0e07\u0e0b\u0e36\u0e48\u0e07\u0e43\u0e19\u0e07\u0e32\u0e19\u0e27\u0e34\u0e08\u0e31\u0e22\u0e19\u0e35\u0e49\u0e44\u0e14\u0e49\u0e19\u0e33\u0e2d\u0e19\u0e38\u0e20\u0e32\u0e04\u0e19\u0e32\u0e42\u0e19 NiS(NPs) \u0e41\u0e25\u0e30SrTi<sub>1-x<\/sub>Co<sub>X<\/sub>O<sub>3<\/sub>(NPs) \u0e17\u0e35\u0e48\u0e2a\u0e31\u0e07\u0e40\u0e04\u0e23\u0e32\u0e30\u0e2b\u0e4c\u0e02\u0e36\u0e49\u0e19\u0e44\u0e14\u0e49\u0e40\u0e2d\u0e07\u0e43\u0e19\u0e2b\u0e49\u0e2d\u0e07\u0e1b\u0e0f\u0e34\u0e1a\u0e31\u0e15\u0e34\u0e01\u0e32\u0e23\u0e40\u0e1b\u0e47\u0e19\u0e2a\u0e48\u0e27\u0e19\u0e1c\u0e2a\u0e21\u0e43\u0e19\u0e01\u0e32\u0e23\u0e17\u0e33\u0e02\u0e31\u0e49\u0e27\u0e40\u0e04\u0e32\u0e19\u0e4c\u0e40\u0e15\u0e2d\u0e23\u0e4c\u0e02\u0e2d\u0e07 DSSC \u0e19\u0e31\u0e48\u0e19\u0e04\u0e37\u0e2d\u0e1b\u0e23\u0e30\u0e14\u0e34\u0e29\u0e10\u0e4c\u0e02\u0e31\u0e49\u0e27\u0e40\u0e04\u0e32\u0e19\u0e4c\u0e40\u0e15\u0e2d\u0e23\u0e4c\u0e08\u0e32\u0e01 NiS(NPs)\/PEDOT:PSS \u0e41\u0e25\u0e30 SrTi<sub>1-x<\/sub>Co<sub>X<\/sub>O<sub>3<\/sub>(NPs)\/PEDOT:PSS <strong>\u0e0b\u0e36\u0e48\u0e07\u0e43\u0e2b\u0e49\u0e1c\u0e25\u0e25\u0e31\u0e1e\u0e18\u0e4c\u0e17\u0e35\u0e48\u0e14\u0e35\u0e21\u0e32\u0e01\u0e04\u0e37\u0e2d\u0e43\u0e2b\u0e49\u0e40\u0e0b\u0e25\u0e25\u0e4c\u0e17\u0e35\u0e48\u0e21\u0e35\u0e1b\u0e23\u0e30\u0e2a\u0e34\u0e17\u0e18\u0e34\u0e20\u0e32\u0e1e\u0e2a\u0e39\u0e07\u0e17\u0e31\u0e14\u0e40\u0e17\u0e35\u0e22\u0e21\u0e01\u0e31\u0e1a\u0e01\u0e32\u0e23\u0e43\u0e0a\u0e49\u0e42\u0e25\u0e2b\u0e30 Pt<\/strong> \u00a0\u0e2d\u0e35\u0e01\u0e01\u0e25\u0e38\u0e48\u0e21\u0e1c\u0e25\u0e07\u0e32\u0e19\u0e17\u0e35\u0e48\u0e19\u0e48\u0e32\u0e2a\u0e19\u0e43\u0e08\u0e04\u0e37\u0e2d\u0e01\u0e32\u0e23\u0e2a\u0e31\u0e07\u0e40\u0e04\u0e23\u0e32\u0e30\u0e2b\u0e4c\u0e27\u0e31\u0e2a\u0e14\u0e38\u0e40\u0e0b\u0e23\u0e32\u0e21\u0e34\u0e01\u0e2a\u0e4c\u0e17\u0e35\u0e48\u0e21\u0e35\u0e04\u0e38\u0e13\u0e2a\u0e21\u0e1a\u0e31\u0e15\u0e34\u0e17\u0e35\u0e48\u0e40\u0e23\u0e35\u0e22\u0e01\u0e27\u0e48\u0e32 <strong>\u0e44\u0e08\u0e41\u0e2d\u0e19\u0e15\u0e4c\u0e44\u0e14\u0e2d\u0e34\u0e40\u0e25\u0e47\u0e01\u0e17\u0e23\u0e34\u0e01<\/strong> \u0e43\u0e19\u0e2a\u0e32\u0e23\u0e01\u0e25\u0e38\u0e48\u0e21 CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub> (CCTO) <strong>\u0e1c\u0e25\u0e25\u0e31\u0e1e\u0e18\u0e4c\u0e17\u0e35\u0e48\u0e2a\u0e33\u0e04\u0e31\u0e0d\u0e04\u0e37\u0e2d\u0e2a\u0e32\u0e21\u0e32\u0e23\u0e16\u0e25\u0e14\u0e04\u0e48\u0e32\u0e1b\u0e23\u0e34\u0e21\u0e32\u0e13\u0e41\u0e17\u0e19\u0e40\u0e08\u0e19\u0e15\u0e4c\u0e01\u0e32\u0e23\u0e2a\u0e39\u0e0d\u0e40\u0e2a\u0e35\u0e22\u0e44\u0e14\u0e49\u0e25\u0e07\u0e15\u0e48\u0e33\u0e21\u0e32\u0e01(\u0e19\u0e49\u0e2d\u0e22\u0e01\u0e27\u0e48\u0e32 0.05) \u0e41\u0e25\u0e30\u0e22\u0e31\u0e07\u0e04\u0e07\u0e44\u0e27\u0e49\u0e0b\u0e36\u0e48\u0e07\u0e04\u0e48\u0e32\u0e04\u0e07\u0e15\u0e31\u0e27\u0e44\u0e14\u0e2d\u0e34\u0e40\u0e25\u0e47\u0e01\u0e17\u0e23\u0e34\u0e01\u0e2a\u0e39\u0e07(\u0e21\u0e35\u0e04\u0e48\u0e32\u0e21\u0e32\u0e01\u0e01\u0e27\u0e48\u0e32 10,000) \u0e2d\u0e35\u0e01\u0e17\u0e31\u0e49\u0e07\u0e22\u0e31\u0e07\u0e2a\u0e32\u0e21\u0e32\u0e23\u0e16\u0e43\u0e0a\u0e49\u0e07\u0e32\u0e19\u0e44\u0e14\u0e49\u0e14\u0e35\u0e43\u0e19\u0e0a\u0e48\u0e27\u0e07\u0e2d\u0e38\u0e13\u0e2b\u0e20\u0e39\u0e21\u0e34\u0e17\u0e35\u0e48\u0e01\u0e27\u0e49\u0e32\u0e07\u0e21\u0e32\u0e01\u0e22\u0e34\u0e48\u0e07\u0e02\u0e36\u0e49\u0e19\u0e01\u0e27\u0e48\u0e32\u0e40\u0e14\u0e34\u0e21\u0e40\u0e2b\u0e21\u0e32\u0e30\u0e17\u0e35\u0e48\u0e08\u0e30\u0e19\u0e33\u0e44\u0e1b\u0e1b\u0e23\u0e30\u0e14\u0e34\u0e29\u0e10\u0e4c\u0e40\u0e1b\u0e47\u0e19\u0e2d\u0e38\u0e1b\u0e01\u0e23\u0e13\u0e4c\u0e15\u0e31\u0e27\u0e40\u0e01\u0e47\u0e1a\u0e1b\u0e23\u0e30\u0e08\u0e38\u0e0a\u0e19\u0e34\u0e14 X7R, X8R \u0e41\u0e25\u0e30 X9R \u0e15\u0e32\u0e21\u0e40\u0e01\u0e13\u0e11\u0e4c\u0e21\u0e32\u0e15\u0e23\u0e10\u0e32\u0e19\u0e02\u0e2d\u0e07 EIA<\/strong> \u0e1c\u0e25\u0e07\u0e32\u0e19\u0e27\u0e34\u0e08\u0e31\u0e22\u0e2d\u0e35\u0e01\u0e01\u0e25\u0e38\u0e48\u0e21\u0e2b\u0e19\u0e36\u0e48\u0e07\u0e17\u0e35\u0e48\u0e15\u0e2d\u0e1a\u0e42\u0e08\u0e17\u0e22\u0e4c\u0e2d\u0e38\u0e15\u0e2a\u0e32\u0e2b\u0e01\u0e23\u0e23\u0e21\u0e01\u0e32\u0e23\u0e01\u0e31\u0e01\u0e40\u0e01\u0e47\u0e1a\u0e1e\u0e25\u0e31\u0e07\u0e07\u0e32\u0e19\u0e43\u0e19\u0e22\u0e38\u0e04\u0e1b\u0e31\u0e08\u0e08\u0e38\u0e1a\u0e31\u0e19\u0e17\u0e35\u0e48\u0e2a\u0e33\u0e04\u0e31\u0e0d\u0e01\u0e47\u0e04\u0e37\u0e2d\u0e01\u0e32\u0e23\u0e1b\u0e23\u0e30\u0e14\u0e34\u0e29\u0e10\u0e4c\u0e15\u0e31\u0e27\u0e40\u0e01\u0e47\u0e1a\u0e1b\u0e23\u0e30\u0e08\u0e38\u0e22\u0e27\u0e14\u0e22\u0e34\u0e48\u0e07\u0e17\u0e35\u0e48\u0e21\u0e35\u0e02\u0e31\u0e49\u0e27\u0e44\u0e1f\u0e1f\u0e49\u0e32\u0e17\u0e33\u0e08\u0e32\u0e01\u0e27\u0e31\u0e2a\u0e14\u0e38\u0e04\u0e2d\u0e21\u0e42\u0e1e\u0e2a\u0e34\u0e15\u0e02\u0e2d\u0e07\u0e42\u0e25\u0e2b\u0e30\u0e2d\u0e2d\u0e01\u0e44\u0e0b\u0e14\u0e4c\u0e01\u0e31\u0e1a\u0e27\u0e31\u0e2a\u0e14\u0e38\u0e04\u0e32\u0e23\u0e4c\u0e1a\u0e2d\u0e19\u0e17\u0e35\u0e48\u0e2a\u0e31\u0e07\u0e40\u0e04\u0e23\u0e32\u0e30\u0e2b\u0e4c\u0e08\u0e32\u0e01\u0e27\u0e31\u0e2a\u0e14\u0e38\u0e40\u0e2b\u0e25\u0e37\u0e2d\u0e17\u0e34\u0e49\u0e07\u0e17\u0e32\u0e07\u0e01\u0e32\u0e23\u0e40\u0e01\u0e29\u0e15\u0e23\u0e40\u0e0a\u0e48\u0e19 \u0e40\u0e2a\u0e49\u0e19\u0e43\u0e22\u0e21\u0e30\u0e1e\u0e23\u0e49\u0e32\u0e27 \u0e41\u0e01\u0e25\u0e1a \u0e01\u0e31\u0e0d\u0e0a\u0e07 \u0e0b\u0e31\u0e07\u0e02\u0e49\u0e32\u0e27\u0e42\u0e1e\u0e14 \u0e40\u0e1b\u0e47\u0e19\u0e15\u0e49\u0e19 \u0e0b\u0e36\u0e48\u0e07\u0e40\u0e1b\u0e47\u0e19\u0e01\u0e32\u0e23\u0e40\u0e1e\u0e34\u0e48\u0e21\u0e21\u0e39\u0e25\u0e04\u0e48\u0e32\u0e43\u0e19\u0e40\u0e0a\u0e34\u0e07\u0e1e\u0e32\u0e13\u0e34\u0e0a\u0e22\u0e4c\u0e43\u0e2b\u0e49\u0e01\u0e31\u0e1a\u0e27\u0e31\u0e2a\u0e14\u0e38\u0e40\u0e2b\u0e25\u0e48\u0e32\u0e19\u0e35\u0e49<\/p>\r\n<p>\u0e1c\u0e25\u0e07\u0e32\u0e19\u0e27\u0e34\u0e08\u0e31\u0e22\u0e08\u0e32\u0e01\u0e1b\u0e35 \u0e04.\u0e28. 2007-2023 \u0e21\u0e35\u0e17\u0e31\u0e49\u0e07\u0e2b\u0e21\u0e14\u0e08\u0e33\u0e19\u0e27\u0e19 103 \u0e40\u0e23\u0e37\u0e48\u0e2d\u0e07\u0e17\u0e35\u0e48\u0e15\u0e35\u0e1e\u0e34\u0e21\u0e1e\u0e4c\u0e40\u0e1c\u0e22\u0e41\u0e1e\u0e23\u0e48\u0e43\u0e19\u0e27\u0e32\u0e23\u0e2a\u0e32\u0e23\u0e23\u0e30\u0e14\u0e31\u0e1a\u0e19\u0e32\u0e19\u0e32\u0e0a\u0e32\u0e15\u0e34\u0e17\u0e35\u0e48\u0e2d\u0e22\u0e39\u0e48\u0e43\u0e19\u0e10\u0e32\u0e19\u0e02\u0e49\u0e2d\u0e21\u0e39\u0e25\u0e17\u0e35\u0e48\u0e1b\u0e23\u0e32\u0e01\u0e0f\u0e43\u0e19 Web of Science\/ISI\/Scopus\/SciMargo \u0e42\u0e14\u0e22\u0e41\u0e1a\u0e48\u0e07\u0e40\u0e1b\u0e47\u0e19 Q1(47), Q2(51), Q3(3), Q4(2) [First-author (21), Co-author (44) \u0e41\u0e25\u0e30 Corr.-author (38)]<\/p>\r\n<p>[\/vc_column_text][\/vc_tta_section][vc_tta_section title=&#8221;\u0e07\u0e32\u0e19\u0e27\u0e34\u0e08\u0e31\u0e22\u0e17\u0e35\u0e48\u0e2a\u0e19\u0e43\u0e08&#8221; tab_id=&#8221;1675439617221-2c2466ea-8e8a&#8221;][vc_column_text animation=&#8221;bounceInDown&#8221;]<\/p>\r\n\r\n<ol class=\"wp-block-list\">\r\n<li style=\"list-style-type: none;\">\r\n<ol>\r\n<li>Magnetic properties of ferrites and others related metal oxide (synthesis and characterization)<\/li>\r\n\r\n\r\n\r\n<li>Dye sensitized solar cell (DSSC)<\/li>\r\n\r\n\r\n\r\n<li>Dielectric properties of CCTO and related materials<\/li>\r\n\r\n\r\n\r\n<li>Supercapacitors (synthesis and characterization)<\/li>\r\n<\/ol>\r\n<\/li>\r\n<\/ol>\r\n<p>[\/vc_column_text][\/vc_tta_section][vc_tta_section title=&#8221;\u0e1c\u0e25\u0e07\u0e32\u0e19\u0e27\u0e34\u0e08\u0e31\u0e22&#8221; tab_id=&#8221;1675439617231-0121e8dc-ebac&#8221;][vc_column_text animation=&#8221;bounceInDown&#8221;]<\/p>\r\n<ol>\r\n<li>Putjuso, S. Putjuso, A. Karaphun, P. Moontragoon, I. Kotutha and <strong>E. Swatsitang*<\/strong>, Influence of Co doping on phase, structure and electrochemical properties of hydrothermally obtained Co<sub>x<\/sub>Zn<sub>1-x<\/sub>Fe<sub>2<\/sub>O<sub>4<\/sub> (x = 0.0\u20130.4) nanoparticles, <strong>Sci. Rep.,<\/strong> <strong>13 (2023)<\/strong>, 2531. <strong>(Q1\/T1, IF=4.996)<\/strong>.<\/li>\r\n<li>Putjuso, S. Putjuso, A. Karaphun, S. Nijpanich, N. Chanlek, and <strong>E. Swatsitang*<\/strong>, Hydrothermally obtained <em>\u03b2<\/em>-MnO<sub>2<\/sub> nanoparticles\/activated carbonized coconut fibers composites, electrochemical properties study for future energy storage devices, <strong>Appl. Surf. Sci.<\/strong>, <strong>618 (2023)<\/strong>, 156653. <strong>(Q1\/T1, IF=6.707)<\/strong>.<\/li>\r\n<li>Silakaew, E. Swatsitang and <strong>P. Thongbai*<\/strong>, Novel polymer composites of RuO2@nBaTiO3\/PVDF with a high dielectric constant, <strong>Ceram., (2022)<\/strong> <strong>(Q1\/T1, IF=4.527)<\/strong>.<\/li>\r\n<li>Wannasen, N. Chanlek, S. Siriroj, S. Maensiri, E. Swatsitang and <strong>S. Pinitsoontorn*<\/strong>, Enhanced Electrochemical Performance of Sugarcane Bagasse-Derived Activated Carbon via a High-Energy Ball Milling Treatment, <strong>Nanomaterials,<\/strong> <strong>12 (2022)<\/strong>, 3555. <strong>(Q1, IF=5.719)<\/strong>.<\/li>\r\n<li>Theprattanakorn, S. Pongha, L. Wannasen, W. Mongkolthanaruk, N. Meethong, E. Swatsitang and <strong>S. Pinitsoontorn*<\/strong>, Fe metal-organic framework\/pyrolyzed bacterial cellulose composite as a high-performance anode for lithium-ion batteries, <strong>Int. J. Energy Res.,<\/strong> <strong>(2022)<\/strong>, 1\u201314.<strong> (Q1, IF=5.164)<\/strong>.<\/li>\r\n<li>Swatsitang, S. Putjuso, S. Nijpanich, M. Sriphakdee and <strong>T. Putjuso*<\/strong>, A novel CaCu<sub>2.8-x<\/sub>Zn<sub>x<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub> system: a high-performance dielectric with nonlinear J &#8211; E properties, <strong>J.<\/strong><strong>Mater.<\/strong>\u00a0<strong>Res.<\/strong>\u00a0<strong>Technol<\/strong>., <strong>19 (2022)<\/strong>, 4473-4488.<strong> (Q1\/T2, IF=6.267)<\/strong>.<\/li>\r\n<li>Prachamon, J. Boonlakhorn, N. Chanlek, N. Phromviyo, V. Harnchana, P. Srepusharawoot, E. Swatsitang and <strong>P. Thongbai*<\/strong>, Enhanced dielectric response and non-Ohmic properties of Ge-doped CaTiO<sub>3<\/sub>\/CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub>, <strong>J. Asian Ceram. Soc<\/strong>., <strong>(2022)<\/strong>, 1-9. <strong>(Q2, IF=3.125)<\/strong>.<\/li>\r\n<li>Swatsitang, S. Putjuso, S. Nijpanich and <strong>T. Putjuso*,<\/strong> Modification of Cu-deficient CaCu<sub>2.8<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub> ceramics via Mg<sup>2+<\/sup>substitution at Cu sites for improved dielectric properties and thermal stability, <strong>J. Alloys Compd., 902 (2022)<\/strong>, 163643<strong>. <\/strong><strong>(Q1\/T1, IF=6.371)<\/strong>.<\/li>\r\n<li>Swatsitang, S. Nijpanich, S. Putjuso and <strong>T. Putjuso<\/strong>*, Effect of sintering temperature and Sm<sup>3+<\/sup> doping on the dielectric properties and non-Ohmic behavior of Ca<sub>1-1.5<em>x<\/em><\/sub>Sm<em><sub>x<\/sub><\/em>Cu<sub>3<\/sub>Ti<sub>4.2<\/sub>O<sub>12<\/sub> (<em>x <\/em>= 0.05 and 0.10) ceramics, <strong>Results Phys<\/strong>., <strong>30 (2021)<\/strong>, 104896. <strong>(Q1\/T1, IF=4.476)<\/strong>.<\/li>\r\n<li>Wannasen, W. Mongkolthanaruk, E. Swatsitang, P. Pavasant and <strong>S. Pinitsoontorn*<\/strong>, Co<sub>2<\/sub>P<sub>2<\/sub>O<sub>7<\/sub> Microplate\/Bacterial Cellulose\u2013Derived Carbon Nanofiber Composites with Enhanced Electrochemical Performance, <strong>Nanomaterials, 11 (2021)<\/strong>, 2015<strong>. (Q1, IF=5.810).<\/strong><\/li>\r\n<li>Swatsitang, P. Kumnorkaew and <strong>T. Putjuso*<\/strong>, Thermal stability improvement of dielectric properties and non-ohmic characteristic of CaCu<sub>3+<em>x<\/em><\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub> ceramics via a Cu-nonstoichiometric approach, <strong>Ceram., (2021)<\/strong>, 1-14. <strong>(Q1\/T1, IF=4.527)<\/strong>.<\/li>\r\n<li>Sawadsitang, T. Duangchuen, A. Karaphun, T. Putjuso, P. Kumnorkaew and <strong>E. Swatsitang*,<\/strong> Synthesis, characterization and electrochemical properties of activated coconut fiber carbon (ACFC) and CuO\/ACFC nanocomposites for applying as electrodes of supercapacitor devices, <strong>Surf. Interfaces, 25 (2021)<\/strong>, 101174. <strong>(Q1, IF=4.837)<\/strong>.<\/li>\r\n<li>Karaphun, S. Sawadsitang, T. Duangchuen, P. Chirawatkul, T. Putjuso, P. Kumnorkaew, S. Maensiri and <strong>E. Swatsitang*<\/strong>, Influence of calcination temperature on structural, morphological, and electrochemical properties of Zn<sub>2<\/sub>P<sub>2<\/sub>O<sub>7<\/sub> nanostructure, <strong>Surf. Interfaces, 23 (2021), 100961<\/strong>. <strong>(Q1, IF=4.837)<\/strong>.<\/li>\r\n<li>Thanamoon, N. Chanlek, P. Srepusharawoot, E. Swatsitang and <strong>P. Thongbai*<\/strong>, Microstructural Evolution and High Performance Giant Dielectric Properties of Lu<sup>3+<\/sup>\/Nb<sup>5+<\/sup> Co-Doped TiO<sub>2<\/sub> Ceramics, <strong>Molecules, 26 (2021), <\/strong>7041. <strong>(Q1, IF=4.148)<\/strong>.<\/li>\r\n<li>Sreejivungsa, N. Phromviyo, E. Swatsitang and <strong>P. Thongbai*<\/strong>, Characterizations and Significantly Enhanced Dielectric Properties of PVDF Polymer Nanocomposites by Incorporating Gold Nanoparticles Deposited on BaTiO3 Nanoparticles, <strong>Polymers, (2021)<\/strong>. <strong>(Q1, IF=4.207)<\/strong>.<\/li>\r\n<li>Wongpratat, P. Tipsawat, J. Khajonrit, E. Swatsitang and <strong>S. Maensiri*<\/strong>, Effects of Nickel and Magnesium on electrochemical performances of partial substitution in spinel ferrite, <strong>J. Alloys Compd., 831 (2020)<\/strong>, 154718<strong>. (Q1\/T1, IF=6.371)<\/strong>.<\/li>\r\n<li>Wannasen, E. Swatsitang and <strong>S. Pinitsoontorn*<\/strong>, Flexible supercapacitors based on mesoporous nanocrystalline cobalt ammonium phosphates and bacterial cellulose composite electrode, <strong>Int. J. Energy Res., (2020), <\/strong>1\u201314. <strong>(Q1, IF=5.164)<\/strong>.<\/li>\r\n<li>Tontapha, W. Sang-aroon, T. Promgool, S. Kanokmedhakul, W. Maiaugree, E. Swatsitang, V. Homrahad and <strong>V. Amornkitbumrung*<\/strong>, Electrocatalytic activity of disulfide\/thiolate with graphene nanosheets as an efficient counter electrode for DSSCs: A DFT study, <strong>Mater.<\/strong><strong>Today Commun., (2019)<\/strong>. <strong>(Q2, IF=3.383)<\/strong>.<\/li>\r\n<li>Swatsitang, A. Karaphun and <strong>T. Putjuso*<\/strong>, Influence of Fe:Co co\u2013doping on the morphology, optical and magnetic properties of Cu<sub>1-(x+y)<\/sub>Fe<sub>x<\/sub>Co<sub>y<\/sub>O nanostructures prepared by a hydrothermal method, <strong>Physica B:Condens.,<\/strong> <strong>583 (2020)<\/strong> 412044. <strong>(Q2, IF=2.88)<\/strong>.<\/li>\r\n<li>P. Pradubkorn, S. Maensiri, E. Swatsitang and <strong>P. Laokul*<\/strong>, Preparation and characterization of hollow TiO<sub>2<\/sub> nanospheres: The effect of Fe<sup>3+<\/sup> doping on their microstructure and electronic structure, <strong> Appl. Phys., 20 (2020)<\/strong>, 178\u2013185. <strong>(Q2, IF=2.64)<\/strong>.<\/li>\r\n<li>Swatsitang, K. Prompa and <strong>T. Putjuso*<\/strong>, Temperature stability of the dielectric properties of Zr<sup>4+<\/sup>-doped CaCu<sub>3<\/sub>Ti<sub>4.2<\/sub>O<sub>12<\/sub> ceramics for X9R capacitor applications, <strong>J. Alloys Compd., 789 (2019), <\/strong>231-239<strong>. (Q1\/T1, IF=6.371)<\/strong>.<\/li>\r\n<li>Duangchuen, A. Karaphun, L. Wannasen, I. Kotutha and <strong>E. Swatsitang*<\/strong>, Effect of SnS<sub>2<\/sub> concentrations on electrochemical properties of SnS<sub>2<\/sub>\/RGO nanocomposites synthesized by a one-pot hydrothermal method, <strong>Appl. Surf. Sci.<\/strong>, <strong>487 (2019)<\/strong>, 634\u2013646. <strong>(Q1\/T1, IF=6.707)<\/strong>.<\/li>\r\n<li>Swatsitang, K. Prompa and <strong>T. Putjuso*<\/strong>, Ni<sup>2+<\/sup>-doped CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub>\/TiO<sub>2<\/sub> nanocomposite ceramics with high temperature stability dielectric and nonlinear electrical properties for X9R capacitors, <strong>Appl. Surf. Sci., 484 (2019)<\/strong>, 925\u2013932.<strong> (Q1\/T1, IF=6.707)<\/strong>.<\/li>\r\n<li>Swatsitang, K. Prompa and <strong>T. Putjuso*<\/strong>, A novel strategy to improve the thermal stability of dielectric properties and reduce the dielectric loss tangent of Ca<sub>1-1.5x<\/sub>Pr<sub>x<\/sub>Cu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub>\/TiO<sub>2<\/sub> ceramics<strong>, Ceram., 45 (2019)<\/strong>, 14733\u201314741.<strong> (Q1\/T1, IF=4.527)<\/strong>.<\/li>\r\n<li>Swatsitang, K. Prompa and <strong>T. Putjuso*<\/strong>, Very high temperature stability and excellent dielectric properties of a novel X9R-type Ca<sub>1-x<\/sub>Sr<sub>x<\/sub>Cu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub>\/TiO<sub>2<\/sub> nanocomposite synthesized by a polymer pyrolysis technique, <strong>Appl. Surf. Sci.,<\/strong> <strong>478 (2019)<\/strong>, 197\u2013205.<strong> (Q1\/T1, IF=6.707)<\/strong>.<\/li>\r\n<li>Swatsitang, K. Prompa and <strong>T. Putjuso*<\/strong>, Effect of Sn<sup>4+<\/sup> doping on the dielectric and nonlinear J-E properties of CaCu<sub>3<\/sub>Ti<sub>4.1<\/sub>O<sub>12<\/sub> ceramics with a slight titanium excess for X9R capacitors, <strong>J.<\/strong><strong>Mater.<\/strong>\u00a0<strong>Sci.: Mater.<\/strong>\u00a0<strong>Electron<\/strong>., <strong>30 (2019)<\/strong>, 20789\u201320800. <strong>(Q2, IF=2.478)<\/strong>.<\/li>\r\n<li>Songwattanasin, A. Karaphun, S. Phokha, S. Hunpratub, S. Maensiri, V.Amornkitbamrung and <strong>E. Swatsitang*,<\/strong> Influence of La concentration on structural, morphological, optical and magnetic properties of Sr<sub>1-x<\/sub> La<sub>x<\/sub>TiO<sub>3<\/sub> nanopowders, <strong>Physica B: Condens., 571 (2019)<\/strong>, 213\u2013221. <strong>(Q2, IF=2.88)<\/strong>.<\/li>\r\n<li>Maiaugree, T. Tansoonton, V. Amornkitbamrung and <strong>E. Swatsitang*<\/strong>, Ni<sub>3<\/sub>S<sub>2<\/sub>@MWCNTs films for effective counter electrodes of dye-sensitized solar cells, <strong>Curr. Appl. Phys., 19 (2019), <\/strong>1355\u20131361. <strong>(Q2, IF=2.64)<\/strong>.<\/li>\r\n<li>Kotutha, T. Duangchuen, E. Swatsitang, W. Meewasana, J. Khajonrit and <strong>Santi Maensiri*<\/strong>, Electrochemical properties of rGO\/CoFe<sub>2<\/sub>O<sub>4<\/sub> nanocomposites for energy storage application, <strong>Ionics, (2019).<\/strong> <strong>(Q2, IF=2.817).<\/strong><\/li>\r\n<li>Sripakdee, K. Prompa, E. Swatsitang and <strong>Thanin Putjuso*<\/strong>, Very high-performance dielectric and non-ohmic properties of novel X8R type Ca<sub>1-1.5x<\/sub>Ho<sub>x<\/sub>Cu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub>\/TiO<sub>2<\/sub> ceramics, <strong>J. Alloys Compd., 779 (2019), <\/strong>521-530<strong>. (Q1\/T1, IF=6.371)<\/strong>.<\/li>\r\n<li>Karaphun, S. Maensiri,S and <strong>E. Swatsitang*<\/strong>, Effect of calcination on structural, morphological, magnetic and electrochemical properties of mesoporous Ni<sub>2<\/sub>P<sub>2<\/sub>O<sub>7<\/sub> microplates, <strong>J.<\/strong><strong>Mater.<\/strong>\u00a0<strong>Sci.: Mater.<\/strong>\u00a0<strong>Electron<\/strong>., <strong>(2019)<\/strong>. <strong>(Q2, IF=2.478)<\/strong>.<\/li>\r\n<li>Wannasen, N. Chanlek, S. Maensiri, and <strong>E. Swatsitang*<\/strong>, Composition effect of Co\/Ni on the morphology and electrochemical properties of NH<sub>4<\/sub>Co<sub>1\u2212x<\/sub>Ni<sub>x<\/sub>PO<sub>4<\/sub>\u00b7H<sub>2<\/sub>O nanocrystallites prepared by a facile hydrothermal method, <strong>J.<\/strong><strong>Mater.<\/strong>\u00a0<strong>Sci.: Mater.<\/strong>\u00a0<strong>Electron<\/strong>., <strong>30 (2019)<\/strong>, 7794\u20137807. <strong>(Q2, IF=2.478)<\/strong>.<\/li>\r\n<li>Tansoonton, W. Maiaugree, A. Karaphun, I. Kotutha and<strong> E. Swatsitang*, <\/strong>Synthesis of MoS<sub>2<\/sub>-MoO<sub>2<\/sub>\/MWCNTs counter electrode for high efficiency dye sensitized solar cells, <strong>J. Mater. Sci.: Mater. Electron., 30 (2019),<\/strong> 20778\u201320788. <strong>(Q2, IF=2.478).<\/strong><\/li>\r\n<li>Songwattanasin, A. Karaphun, S. Hunpratub, S. Maensiri, <strong>E. Swatsitang*<\/strong> and V. Amornkitbamrung, Influence of Annealing on Microstructure, Electrochemical and Magnetic Properties of Co-Doped SrTiO<sub>3<\/sub> Nanocubes, <strong>J.<\/strong><strong>Supercond.<\/strong>\u00a0<strong>Nov.<\/strong>\u00a0<strong>Magn<\/strong>., <strong>(2019)<\/strong>, <strong>(Q3, IF=1.675).<\/strong><\/li>\r\n<li>Sikam, <strong>P. Moontragoon*<\/strong>, C. Sararat, A. Karaphun, E. Swatsitang, S. Pinitsoontorn and P. Thongbai, DFT calculation and experimental study on structural, optical and magnetic properties of Co-doped SrTiO<sub>3<\/sub>, <strong>Appl. Surf. Sci., (2018).<\/strong> <strong>(Q1\/T1, IF=6.707).<\/strong><\/li>\r\n<li>Karaphun, S. Phokha, S. Hunpratub, T. Putjuso and <strong>E. Swatsitang*<\/strong>, Influence of Ba substitution, Fe doping and annealing effect on magnetic and optical properties of Sr<sub>0.9<\/sub>Ba<sub>0.1<\/sub>Ti<sub>1-x<\/sub>Fe<sub>x<\/sub>O<sub>3<\/sub> nanoparticles prepared by the hydrothermal method, <strong>J. Mater. Sci.: Mater. Electron., 29 (2018),<\/strong> 8188\u20138200. <strong>(Q2, IF=2.478).<\/strong><\/li>\r\n<li>Prompa, E. Swatsitang and <strong>T. Putjuso*<\/strong>, Enhancement of nonlinear electrical properties with high performance dielectric properties of CaCu<sub>2.95<\/sub>Cr<sub>0.05<\/sub>Ti<sub>4.1<\/sub>O<sub>12<\/sub> ceramics, <strong>Ceram., (2018)<\/strong>.<strong> (Q1\/T1, IF=4.527)<\/strong>.<\/li>\r\n<li>Karaphun, P. Chirawatkul, S. Maensiri and <strong>E. Swatsitang*, <\/strong>Influence of calcination temperature on the structural, morphological, optical, magnetic and electrochemical properties of Cu<sub>2<\/sub>P<sub>2<\/sub>O<sub>7<\/sub> nanocrystals<strong>, J Solgel Sci Technol, (2018). (Q2, IF=2.326). <\/strong><\/li>\r\n<li>Swatsitang, K. Prompa and <strong>T. Putjuso*<\/strong>, Very high thermal stability with excellent dielectric, and non-ohmics properties of Mg-doped CaCu<sub>3<\/sub>Ti<sub>4.2<\/sub>O<sub>12<\/sub> ceramics<strong>, J. Mater. Sci.: Mater. Electron., 29 (2018), <\/strong>12639\u201312651<strong>. (Q2, IF=2.478).<\/strong><\/li>\r\n<li>Swatsitang and<strong> T. Putjuso*, <\/strong>Improved non-ohmic and dielectric properties of Cr<sup>3+<\/sup> doped CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12 <\/sub>ceramics prepared by a polymer pyrolysis solution route, <strong>J.\u00a0Eur.\u00a0Ceram.\u00a0Soc., (2018). (Q1, IF=5.302).\u00a0\u00a0\u00a0\u00a0 <\/strong><\/li>\r\n<li>Maiaugree, A. Karaphun, V. Amornkitbamrung and <strong>E. Swatsitang*<\/strong>, Influence of SrTi<sub>1-x<\/sub>Co<sub>x<\/sub>O<sub>3<\/sub> NPs on electrocatalytic activity of SrTi<sub>1-x<\/sub>Co<sub>x<\/sub>O<sub>3<\/sub> NPs\/PEDOT-PSS counter electrodes for high efficiency dye sensitized solar cells, <strong>Energy,<\/strong> <strong>154 (2018)<\/strong>, 182-189. <strong>(Q1, IF=7.147).<\/strong><\/li>\r\n<li>Prompa, E. Swatsitang, C. Saiyasombat and <strong>Thanin Putjuso*<\/strong>, Very high-performance dielectric and non-Ohmics properties of CaCu<sub>3<\/sub>Ti<sub>4.2<\/sub>O<sub>12<\/sub> ceramics for X8R capacitors, <strong>Ceram., (2018).<\/strong> <strong>(Q1\/T1, IF=4.527).<\/strong><\/li>\r\n<li>Prompa, E. Swatsitang, and <strong>Thanin Putjuso*<\/strong>, Ultra-stable X9R type CaCu<sub>3-x<\/sub>Zn<sub>x<\/sub>Ti<sub>4.1<\/sub>O<sub>12<\/sub> ceramics, <strong>Ceram., (2018). (Q1\/T1, IF=4.527).<\/strong><\/li>\r\n<li>A. Karaphun, S. Kaewmala, N. Meethong, S. Hunpratub and <strong> Swatsitang<\/strong><strong>*<\/strong>, Electrochemical and Magnetic Properties of Electrospun SrTi<sub>1\u2212x<\/sub>Fe<sub>x<\/sub>O<sub>3<\/sub> (x = 0, 0.05 and 0.10) Nanofibers for Anodes of Li-Ion Batteries, <strong>J.<\/strong><strong>Supercond.<\/strong>\u00a0<strong>Nov.<\/strong>\u00a0<strong>Magn.<\/strong>, <strong>31<\/strong> <strong>(2017)<\/strong>, 1909\u20131916. <strong>(Q3, IF=1.675).<\/strong><\/li>\r\n<li>Wongpratat<strong>, <\/strong>S. Maensiri and <strong>E. Swatsitang*, <\/strong>Effect of Mg substitution on magnetic properties of Co<sub>1\u2212x<\/sub>Mg<sub>x<\/sub>Fe<sub>2<\/sub>O<sub>4<\/sub> nanoparticles investigated by EXAFS analysis, <strong>Ceram., (2017). (Q1\/T1, IF=4.527).<\/strong><\/li>\r\n<li>Karaphun, S. Hunpratub, S. Phokha, T. Putjuso and <strong>E. Swatsitang*<\/strong>, Characterization and magnetic properties of SrTi<sub>1-x<\/sub>Ni<sub>x<\/sub>O<sub>3 <\/sub>nanoparticles prepared by hydrothermal method, <strong>Physica B: Condens., 504<\/strong> <strong>(2017),<\/strong> 31\u201338. <strong>(Q2, IF=2.88)<\/strong>.<\/li>\r\n<li>Swatsitang and <strong>T. Putjuso*<\/strong>, Very low loss tangent, high dielectric and non-ohmic properties of Ca<sub>1-1.5x<\/sub>Pr<sub>x<\/sub>Cu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12 <\/sub>ceramics prepared by the sol-gel process, <strong>J. Mater. Sci.: Mater. Electron., <\/strong><strong>(2017). (Q2, IF=2.478).<\/strong><\/li>\r\n<li>Prompa, E. Swatsitang, and <strong>Thanin Putjuso*<\/strong>, Very low loss tangent and giant dielectric propertiesof CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12 <\/sub>ceramics prepared by the sol\u2013gel process, <strong>J. Mater. Sci.: Mater. Electron., 28 (2017),<\/strong>15033\u201315042<strong> (Q2, IF=2.478).<\/strong><\/li>\r\n<li>Swatsitang, A. Karaphun, S. Phokha, S. Hunpratub and <strong>Thanin Putjuso*<\/strong>, Magnetic and optical properties of Cu<sub>1\u2212x<\/sub>Fe<sub>x<\/sub>O nanosheets prepared by the hydrothermal method, <strong>J. Sol-Gel Sci Technol, (2017). <\/strong><strong>(Q2, IF=2.326).<\/strong><\/li>\r\n<li>Maiaugree, P. Pimparue, W. Jarernboon, S. Pimanpang, V. Amornkitbamrung and <strong>E. Swatsitang*,<\/strong> NiS(NPs)-PEDOT-PSS composite counter electrode for a high efficiency dye sensitized solar cell, <strong>Mater. Sci. Eng. B.<\/strong>, <strong>220 (2017)<\/strong>, 66\u201372. <strong>(Q2, IF=3.407).<\/strong><\/li>\r\n<li>Karaphun, S. Hunpratub, S. Phokha, T. Putjuso and <strong>E. Swatsitang*<\/strong>, Effect of Co cations and oxygen vacancy on optical and magnetic properties of SrTi<sub>1\u2212x<\/sub>Co<sub>x<\/sub>O<sub>3<\/sub> nanoparticles prepared by the hydrothermal method, <strong>J. Mater. Sci.: Mater. Electron., 28 (2017),<\/strong>8294\u20138303.<strong> (Q2, IF=2.478).<\/strong><\/li>\r\n<li>Swatsitang, A. Karaphun, S. Phokha, S. Hunpratub and <strong>Thanin Putjuso*<\/strong>, Investigation of structural, morphological, optical and magnetic properties of Sm-doped LaFeO<sub>3<\/sub> nanopowders prepared by sol-gel method, <strong>J. Sol-Gel Sci Technol, (2016). <\/strong><strong>(Q2, IF=2.326).<\/strong><\/li>\r\n<li>Swatsitang, A. Karaphun, S. Phokha and <strong>Thanin Putjuso*<\/strong>, Characterization and magnetic properties of BaSn<sub>1-x<\/sub>Fe<sub>x<\/sub>O<sub>3<\/sub> nanoparticles prepared by a modified sol\u2013gel method, <strong>J. Sol-Gel Sci Technol, 77 (2016), <\/strong>78-84<strong>. (Q2, IF=2.326).<\/strong><\/li>\r\n<li>Swatsitang, S. Phokha, S. Hunpratub and <strong>S. Maensiri*,<\/strong> Characterization of Sm-doped CeO<sub>2<\/sub> nanoparticles and their magnetic properties, <strong>Physica B: Condens., (2016). (Q2, IF=2.88)<\/strong>.<\/li>\r\n<li>Swatsitang, <strong>S. Phokha*<\/strong>, S. Hunpratub, B. Usher, A. Bootchanont, S. Maensiri and P. Chindaprasirt, Characterization and magnetic properties of cobalt ferrite nanoparticles, <strong>J. Alloys Compd., 664 (2016), <\/strong>792-797<strong>. (Q1\/T1, IF=6.371)<\/strong>.<\/li>\r\n<li>Wongpratat, S. Maensiri and E. <strong>Swatsitang*<\/strong>, EXAFS analysis of cations distribution in structure of Co<sub>1-x<\/sub>Ni<sub>x<\/sub>Fe<sub>2<\/sub>O<sub>4<\/sub> nanoparticles obtained by hydrothermal method in aloe vera extract solution<strong>,<\/strong> <strong>Appl. Surf. Sci., (2016). (Q1\/T1, IF=6.707).<\/strong><\/li>\r\n<li>Hunpratub, A. Karaphun, S. Phokha and <strong>E. Swatsitang*<\/strong>, Optical and magnetic properties of La<sub>1-x<\/sub>Ga<sub>x<\/sub>FeO<sub>3<\/sub> nanoparticles synthesized by polymerization complex method, <strong>Appl. Surf. Sci., (2016). (Q1\/T1, IF=6.707).<\/strong><\/li>\r\n<li>Phinjaturus, W. Maiaugree, B. Suriharn, S. Pimanpaeng, V. Amornkitbamrung and <strong>E. Swatsitang*, <\/strong>Dye-sensitized solar cells based on purple corn sensitizers, <strong>Appl. Surf. Sci., 380 (2016), <\/strong>101-107<strong>. (Q1\/T1, IF=6.707).<\/strong><\/li>\r\n<li>Phromviyo, E. Swatsitang and <strong>A. Chompoosor*<\/strong>, The Role of Anionic Stabilizer on the Formation of Polyoxalate Nanoparticles: In Vitro Release and Cytotoxicity of Polyoxalate Nanoparticles, <strong>J.<\/strong><strong>Nanoelectron.<\/strong>\u00a0<strong>Optoelectron<\/strong>., <strong>10 (2015)<\/strong>, 157-162. <strong>(Q4, IF=0.961).<\/strong><\/li>\r\n<li>Phromviyo, A. Lertitthiporn, E. Swatsitang and <strong>A. Chompoosor*<\/strong>, Biodegradable Poly(vinylalcohol)\/Polyoxalate Electrospun Nanofibers for Hydrogen Peroxide Triggered Drug Release, <strong>J. Biomater. Sci. Polym. Ed., (2015). (Q2, IF=3.517).<\/strong><\/li>\r\n<li>Tuichai, P. Sriputshrawoot, E. Swatsitang, S. Danwittayakul and <strong>P. Thongbai*<\/strong>, Giant dielectric permittivity and electronic structure in (Al + Sb) co-doped TiO<sub>2<\/sub> ceramics, <strong>Microelectron. Eng.<\/strong>, <strong>146 (2015)<\/strong>, 32-37. <strong>(Q2, IF=2.73).<\/strong><\/li>\r\n<li><strong> Phokha*<\/strong>, J. Klinkaewnarong, S. Hunpratub, K. Boonserm, E. Swatsitang and S. Maensiri, Ferromagnetism in Fe-doped MgO nanoparticles, <strong>J. Mater. Sci.: Mater. Electron., (2015)<\/strong>.<strong> (Q2, IF=2.478).<\/strong><\/li>\r\n<li>Swatsitang, S. Phokha, S. Hunpratub, and <strong>S. Maensiri*<\/strong>, Modification of Ce valence state by Sm\/Sr co-doping of CeO<sub>2<\/sub> nanoparticles for improved magneto-electrochemical properties, <strong>Mater.<\/strong><strong>Des<\/strong>., <strong>108 (2016)<\/strong>, 27\u201333. <strong>(Q1, IF=9.417).<\/strong><\/li>\r\n<li>Sonsupap, E. Swatsitang, S. Maensiri and <strong>K. Wongsaprom*<\/strong>, Synthesis and Characterization of Indium Oxide Nanoparticles Using Indium Nitrate and Polyvinylpyrrolidone (PVP) as Precursors,<strong> Chiang Mai J. Sci., 42(3) (2015),<\/strong> 752-760. <strong>(Q4, IF=0.523).<\/strong><\/li>\r\n<li><strong> Laokul*<\/strong>, S. Arthan, S. Maensiri and E. Swatsitang, Magnetic and Optical Properties of CoFe<sub>2<\/sub>O<sub>4<\/sub> Nanoparticles Synthesized by Reverse Micelle Microemulsion Method, <strong>J. Supercond. Nov. Magn., (2015). (Q3, IF=1.675).<\/strong><\/li>\r\n<li>Wannasen and <strong>E. Swatsitang*<\/strong>, Magnetic properties dependence on Fe<sup>2+<\/sup>\/Fe<sup>3+<\/sup> and oxygen vacancies in SrTi<sub>0.95<\/sub>Fe<sub>0.05<\/sub>O<sub>3<\/sub> nanocrystalline prepared by hydrothermal method, <strong>Microelectron. Eng.<\/strong>, <strong>146 (2015)<\/strong>, 92-98. <strong>(Q2, IF=2.73).<\/strong><\/li>\r\n<li>Phokha, E. Swatsitang, and <strong>S. Maensiri*<\/strong>, Room-Temperature Ferromagnetism in Pure CeO<sub>2<\/sub> Nanoparticles Prepared by a Simple Direct Thermal Decomposition, <strong>Electron. Mater. Lett., 11(6) (2015)<\/strong>, 1012-1020. <strong>(Q2, IF=3.017).<\/strong><\/li>\r\n<li>Saensuk, S. Phokha, A. Bootchanont, S. Maensiri and <strong>E. Swatsitang*, <\/strong>Fabrication and magnetic properties of NiFe<sub>2<\/sub>O<sub>4<\/sub> nanofibers obtained by electrospinning, <strong>Ceram., 41 (2015), <\/strong>8133-8141<strong>. (Q1\/T1, IF=4.527).<\/strong><\/li>\r\n<li>Karaphun, S. Hunpratub, T. Putjuso and <strong>E. Swatsitang*<\/strong>, Characterization and dielectric properties of SrTi<sub>1-x<\/sub>Mn<sub>x<\/sub>O<sub>3<\/sub> ceramics<strong>, Jpn J Appl Phys, 54, 06FH09 (2015).<\/strong><strong> (Q2, IF=1.491).<\/strong><\/li>\r\n<li>Wongpratat, S. Maensiri and <strong>E. Swatsitang*<\/strong>, EXAFS study of cations distribution dependence of magnetic properties in Co<sub>1-x<\/sub>Zn<sub>x<\/sub>Fe<sub>2<\/sub>O<sub>4<\/sub> nanoparticles prepared by hydrothermal method, <strong>Microelectron. Eng., 146 (2015)<\/strong>, 68-75. <strong>(Q2, IF=2.73).<\/strong><\/li>\r\n<li>Kotutha, E. Swatsitang, W. Meewassana, and <strong>S. Maensiri*<\/strong>, One-pot hydrothermal synthesis, characterization, and electrochemical properties of rGO\/MnFe<sub>2<\/sub>O<sub>4<\/sub> nanocomposites, <strong>Jpn J Appl Phys, 54, 06FH10 (2015). (Q2, IF=1.491).<\/strong><\/li>\r\n<li><strong> Wongsaprom*, R.A. Bornphotsawatkun*<\/strong> and E. Swatsitang, Synthesis and characterization of tin oxide (SnO<sub>2<\/sub>) nanocrystalline powders by a simple modified sol-gel route, <strong>Appl. Phys. AAPPL PHYS A-MATER<\/strong>, <strong>114 (2014)<\/strong>, 373\u2013379. <strong>(Q2, IF=2.584).<\/strong><\/li>\r\n<li>Wongpratat, S. Meansiri and <strong>E. Swatsitang<\/strong>*, Local structure and magnetic property of Ni<sub>1-x<\/sub>Zn<sub>x<\/sub>Fe<sub>2<\/sub>O<sub>4<\/sub> (x = 0, 0.25, 0.50, 0.75, 1.00) nanoparticles prepared by hydrothermal method, <strong>Microelectron. Eng., 126 (2014)<\/strong>, 19-26. <strong>(Q2, IF=2.73).<\/strong><\/li>\r\n<li>Wiriya, A. Bootchanont, S. Maensiri and <strong>E. Swatsitang<\/strong>*, X-ray absorption fine structure analysis of Mn<sub>1-x<\/sub>Co<sub>x<\/sub>Fe<sub>2<\/sub>O<sub>4<\/sub> nanoparticles prepared by hydrothermal method, <strong>Jpn J Appl Phys, 53, 06JF09 (2014). (Q2, IF=1.491).<\/strong><\/li>\r\n<li>Wiriya, A. Bootchanont, S. Maensiri and <strong>E. Swatsitang<\/strong>*, Magnetic properties of Zn<sub>1-x<\/sub>Mn<sub>x<\/sub>Fe<sub>2<\/sub>O<sub>4<\/sub> nanoparticles prepared by hydrothermal method, <strong>Microelectron. Eng., 126 (2014),<\/strong> 1-8. <strong>(Q2, IF=2.73).<\/strong><\/li>\r\n<li>Wannasen, S. Hunpratub and <strong>E. Swatsitang*<\/strong>, Microstructure and optical properties of La<sub>0.5<\/sub>Sr<sub>0.5<\/sub>Ti<sub>1-x<\/sub>Fe<sub>x<\/sub>O<sub>3<\/sub> nanoparticles prepared by thermal decomposition, <strong>Microelectron. Eng., 126 (2014),<\/strong> 31-36. <strong>(Q2, IF=2.73).<\/strong><\/li>\r\n<li>Swatsitang and <strong>T. Putjuso<\/strong>*, Dielectric properties of Ni-doped Ba<sub>0.5<\/sub>Sr<sub>0.5<\/sub>TiO<sub>3<\/sub> ceramics prepared with hydrothermal synthesized nanopowders, <strong>J. Sol-Gel Sci Technol, (2014). (Q2, IF=2.326).<\/strong><\/li>\r\n<li>Saensuk, S. Maensiri, A. Bootchanont and <strong>E. Swatsitang<\/strong>*, Fabrication and magnetic properties of electrospun Ni<sub>1- x<\/sub>Cu<sub>x<\/sub>Fe<sub>2<\/sub>O<sub>4<\/sub> nanofibers<strong>, Microelectron. Eng., 126 (2014), <\/strong>158-164<strong>. (Q2, IF=2.73).<\/strong><\/li>\r\n<li>Phromviyo, E. Swatsitang and <strong>A. Chompoosor*<\/strong>, Effect of a surface stabilizer on the formation of polyoxalate nanoparticles and their release profiles, <strong>Vacuum, 107 (2014),<\/strong> 208-212. (<strong>Q2, IF=3.627).<\/strong><\/li>\r\n<li>Noipa, S. Labuayai, E. Swatsitang and <strong>S. Maensiri<\/strong><strong>*<\/strong>, Room-temperature ferromagnetism in nanocrystalline Fe-doped NiO powders synthesized by a simple direct thermal decomposition method, <strong>Electron. Mater. Lett., 10(1) (2014)<\/strong>, 147-152. <strong>(Q2, IF=3.017).<\/strong><\/li>\r\n<li><strong> Maensiri*<\/strong>, S. Labuayai, P. Laokul, J. Klinkaewnarong and E. Swatsitang, Structure and optical properties of CeO<sub>2<\/sub> nanoparticles prepared by using lemongrass plant extract solution, <strong>Jpn J Appl Phys, 53, 06JG14 (2014). (Q2, IF=1.491).<\/strong><\/li>\r\n<li>Karaphun, S. Hunpratub and <strong>E. Swatsitang<\/strong>*, Effect of annealing on magnetic properties of Fe-doped SrTiO<sub>3<\/sub> nanopowders prepared by hydrothermal method, <strong>Microelectron. Eng., 126 (2014),<\/strong> 42-48<strong>. <\/strong><strong>(Q2, IF=2.73).<\/strong><\/li>\r\n<li>Janbutrach, S. Hunpratub and <strong>E. Swatsitang*, <\/strong>Ferromagnetism and optical properties of La<sub>1\u2212x<\/sub>Al<sub>x<\/sub>FeO<sub>3<\/sub> nanopowders, <strong>Nanoscale Res.<\/strong><strong>Lett<\/strong>., <strong>9 (2014)<\/strong>, 498-504. <strong>(Q1, IF=4.703).<\/strong><\/li>\r\n<li>Wannasen and <strong>E. Swatsitang<\/strong>*, Synthesis and characterization of La<sub>0.5<\/sub>Sr<sub>0.5<\/sub>TiO<sub>3<\/sub> nanopaticles prepared by thermal decomposition, <strong>Jpn J Appl Phys, 52, 06GG11 (2013). (Q2, IF=1.491).<\/strong><\/li>\r\n<li>Vangchangyia, T. Yamwong, E. Swatsitang, <strong>P. Thongbai*<\/strong> and S. Maensiri, Selectivity of doping ions to effectively improve dielectric and non-ohmic properties of CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub> ceramics, <strong>Ceram., 39 (2013), <\/strong>8133-8139<strong>. (Q1\/T1, IF=4.527).<\/strong><\/li>\r\n<li><strong> Thongbai*<\/strong>, S. Vangchangyia, E. Swatsitang, V. Amornkitbamrung, T. Yamwong and S. Maensiri, Non-Ohmic and dielectric properties of Ba-doped CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub> ceramics, <strong>J. Mater. Sci.: Mater. Electron., 24 (2013), <\/strong>875-883.<strong> (Q2, IF=2.478).<\/strong><\/li>\r\n<li>Swatsitang, A. Niyompan and <strong>T. Putjuso*<\/strong>, Giant dielectric, low dielectric loss, and non-ohmic properties of nanocrystalline CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub>, <strong>J. Mater. Sci.: Mater. Electron., (2013)<\/strong>.<strong> (Q2, IF=2.478).<\/strong><\/li>\r\n<li><strong> Swatsitang<\/strong>*, S. Hunpratub and S. Maensiri, Fe-doped La<sub>0.5<\/sub>Sr<sub>0.5<\/sub>TiO<sub>3<\/sub> nanopowders prepared by hydrothermal method, <strong>Microelectron. Eng., 108 (2013),<\/strong> 209-212<strong>. (Q2, IF=2.73).<\/strong><\/li>\r\n<li><strong> Srepusharawoot*<\/strong>, E. Swatsitang, V. Amornkitbamrung, U. Pinsook and R. Ahuja, Hydrogen adsorption of Li functionalized Covalent Organic Framework-366: An ab initio study, <strong>Int.<\/strong><strong>J.<\/strong>\u00a0<strong>Hydrog.<\/strong>\u00a0<strong>Energy<\/strong>, <strong>38 (2013)<\/strong>, 14276-14280. <strong>(Q1\/T1, IF=7.139).<\/strong><\/li>\r\n<li>Phumying, S. Labuayai, C. Thomas, V. Amornkitbamrung, E. Swatsitang and <strong>S. Maensiri*<\/strong>, Aloe vera plant-extracted solution hydrothermal synthesis and magnetic properties of magnetite (Fe<sub>3<\/sub>O<sub>4<\/sub>) nanoparticles, <strong>Appl. Phys. AAPPL PHYS A-MATER<\/strong>, <strong>111 (2013)<\/strong>, 1187\u20131193. <strong>(Q2, IF=2.584).<\/strong><\/li>\r\n<li>Phumying, S. Labuayai, E. Swatsitang, V. Amornkitbamrung and <strong>S. Maensiri*<\/strong>, Nanocrystalline spinel ferrite (MFe2O4, M = Ni, Co, Mn, Mg, Zn) powders prepared by a simple aloe vera plant-extracted solution hydrothermal route, <strong>Mater.<\/strong><strong>Res.<\/strong>\u00a0<strong>Bull<\/strong>., <strong>48 (2013)<\/strong>, 2060-2065. <strong>(Q1, IF=4.641)<\/strong>.<\/li>\r\n<li>Vangchangyia, E. Swatsitang, <strong>P. Thongbai*<\/strong>, S. Pinitsoontorn, T. Yamwong, S. Maensiri, V. Amornkitbamrung and P. Chindaprasirt, Very low loss tangent and high dielectric permittivity in pure-CaCu<sub>3<\/sub>Ti<sub>4<\/sub>O<sub>12<\/sub> ceramics prepared by a modified sol-gel process, <strong>J.<\/strong><strong>Am.<\/strong>\u00a0<strong>Ceram.<\/strong>\u00a0<strong>Soc<\/strong>., <strong>95[5] (2012)<\/strong>, 1497-1500. <strong>(Q1, IF=3.784)<\/strong>.<\/li>\r\n<li>Putjuso, S. Maensiri, S. Hunpratub and <strong>E. Swatsitang*, <\/strong>La<sub>0.5<\/sub>Sr<sub>0.5<\/sub>TiO<sub>3<\/sub> nanopowders prepared by the hydrothermal method,<strong> Mater.<\/strong><strong>Res.<\/strong>\u00a0<strong>Bull<\/strong>., <strong>47 (2012)<\/strong>, 2270-2276. <strong>(Q1, IF=4.641)<\/strong>.<\/li>\r\n<li><strong> Swatsitang<\/strong>*, P. Buppato, S. Hunpratub and S. Maensiri, Synthesis and structure analysis of La<sub>0.5<\/sub>Sr<sub>0.5<\/sub>TiO<sub>3<\/sub> nanoparticles prepared by thermal decomposition method, <strong>J.<\/strong><strong>Nanosci.<\/strong>\u00a0<strong>Nanotechnol<\/strong>., <strong>11 (2011)<\/strong>, 8826-8830. <strong>(Q1, IF=1.28)<\/strong>.<\/li>\r\n<li>Klinkaewnarong, <strong>E. Swatsitang<\/strong>* and S. Maensiri, Synthesis and characterization of high purity hydroxyapatite nanorods by hydrothermal technique, <strong>J. Nanosci. Nanotechnol., 11 (2011)<\/strong>, 8831-8834. <strong>(Q1, IF=1.28).<\/strong><\/li>\r\n<li>Ponhan, E. Swatsitang and <strong>S. Maensiri*<\/strong>, Fabrication and magnetic properties of electrospun zinc ferrite (ZnFe<sub>2<\/sub>O<sub>4<\/sub>) nanofibers, <strong>Mater.<\/strong><strong>Sci.<\/strong>\u00a0<strong>Technol<\/strong>., <strong>26[11] (2010)<\/strong>, 1298-1303. <strong>(Q2, IF=1.85).<\/strong><\/li>\r\n<li>Klinkaewnarong, E. Swatsitang, C. Masingboon, S. Seraphin and <strong>S. Maensiri*<\/strong>, Synthesis and characterization of nanocrystalline HAp powders prepared by using aloe vera plant extracted solution, <strong>Curr.<\/strong><strong>Appl.<\/strong>\u00a0<strong>Phys.<\/strong>, <strong>10 (2010)<\/strong>, 521\u2013525.<strong> (Q2, IF=2.48).<\/strong><\/li>\r\n<li>Phoka, P. Laokul, E. Swatsitang, V. Promarak, S. Seraphin and <strong>S. Maensiri*<\/strong>, Synthesis, structural and optical properties of CeO<sub>2<\/sub> nanoparticles synthesized by a simple polyvinyl pyrrolidone (PVP) solution route, <strong>Mater.<\/strong><strong>Chem.<\/strong>\u00a0<strong>Phys<\/strong>., <strong>115 (2009)<\/strong>, 423\u2013428. <strong>(Q2, IF=4.094).<\/strong><\/li>\r\n<li>Klinkaewnarong, E. Swatsitang and <strong>S. Maensiri*<\/strong>, Nanocrystalline hydroxyapatite powders by a chitosan-polymer complex solution route: Synthesis and characterization, <strong>Solid State Sci.<\/strong>, <strong>11 (2009)<\/strong>, 1023\u20131027. <strong>(Q2, IF=3.059).<\/strong><\/li>\r\n<li>Jarernboon, <strong>S. Pimanpang*<\/strong>, S. Maensiri, E. Swatsitang and V. Amornkitbamrung, Effects of multiwall carbon nanotubes in reducing microcrack formation on electrophoretically deposited TiO<sub>2<\/sub> film, <strong>J. Alloys Compd., 476 (2009), <\/strong>840\u2013846<strong>. (Q1\/T1, IF=6.371)<\/strong>.<\/li>\r\n<li>Jarernboon, <strong>S. Pimanpang*<\/strong>, S. Maensiri, E. Swatsitang and V. Amornkitbamrung, Optimization of titanium dioxide film prepared by electrophoretic deposition for dye-sensitized solar cell application, <strong>Thin Solid Films<\/strong>, <strong>517 (2009)<\/strong>, 4663\u20134667. <strong>(Q1, IF=2.183)<\/strong>.<\/li>\r\n<li>Wongsaprom, E. Swatsitang, S. Maensiri, S. Srijaranai and S. Seraphin, Room temperature ferromagnetism in Co-doped La<sub>0.5<\/sub>Sr<sub>0.5<\/sub>TiO<sub>3-<\/sub><sub>\u03b4<\/sub> nanoparticles, <strong>Appl.<\/strong><strong>Phys.<\/strong>\u00a0<strong>Lett.<\/strong>, <strong>90<\/strong> <strong>(2007)<\/strong>, 162506. <strong>(Q1, IF=3.971)<\/strong>.<\/li>\r\n<li><strong> Maensiri*<\/strong>, K. Wongsaprom, E. Swatsitang and S. Seraphin, Fe-doped La<sub>0.5<\/sub>Sr<sub>0.5<\/sub>TiO<sub>3-<\/sub><sub>\u03b4<\/sub> nanoparticles: A diluted magnetic oxide system, <strong>J.<\/strong><strong>Appl.<\/strong>\u00a0<strong>Phys.<\/strong>, <strong>102<\/strong> <strong>(2007)<\/strong>, 076110. <strong>(Q1, IF=2.546).<\/strong><\/li>\r\n<\/ol>\r\n<p>[\/vc_column_text][\/vc_tta_section][vc_tta_section title=&#8221;\u0e2a\u0e34\u0e17\u0e18\u0e34\u0e1a\u0e31\u0e15\u0e23\/\u0e2d\u0e19\u0e38\u0e2a\u0e34\u0e17\u0e18\u0e34\u0e1a\u0e31\u0e15\u0e23&#8221; 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