半导体技术
半導體技術
반도체기술
SEMICONDUCTOR TECHNOLOGY
2009年
11期
1092-1095
,共4页
刘汉法%张化福%袁玉珍%袁长坤
劉漢法%張化福%袁玉珍%袁長坤
류한법%장화복%원옥진%원장곤
掺钛氧化锌%透明导电薄膜%磁控溅射%靶衬间距
摻鈦氧化鋅%透明導電薄膜%磁控濺射%靶襯間距
참태양화자%투명도전박막%자공천사%파츤간거
ZnO : Ti%transparent conducting films%magnetron sputtering%substrate to target distance
利用直流磁控溅射法在室温水冷玻璃衬底上成功地制备出了掺钛氧化锌(ZnO:Ti)透明导电薄膜.研究了靶衬间距对ZnO:Ti薄膜结构、形貌和光电性能的影响.研究结果表明,靶衬间距对ZnO:Ti薄膜的结构和电阻率有显著影响.X射线衍射(XRD)表明,ZnO:Ti薄膜为六角纤锌矿结构的多晶薄膜,且具有c轴择优取向.在靶衬间距为4.6 cm时,实验获得的ZnO:Ti薄膜电阻率具有最小值4.18×10~(-4)Ω·cm.实验制备的ZnO:Ti薄膜具有良好的附着性能,可见光区平均透过率超过92%.ZnO:Ti薄膜可以用作薄膜太阳能电池和液晶显示器的透明电极.
利用直流磁控濺射法在室溫水冷玻璃襯底上成功地製備齣瞭摻鈦氧化鋅(ZnO:Ti)透明導電薄膜.研究瞭靶襯間距對ZnO:Ti薄膜結構、形貌和光電性能的影響.研究結果錶明,靶襯間距對ZnO:Ti薄膜的結構和電阻率有顯著影響.X射線衍射(XRD)錶明,ZnO:Ti薄膜為六角纖鋅礦結構的多晶薄膜,且具有c軸擇優取嚮.在靶襯間距為4.6 cm時,實驗穫得的ZnO:Ti薄膜電阻率具有最小值4.18×10~(-4)Ω·cm.實驗製備的ZnO:Ti薄膜具有良好的附著性能,可見光區平均透過率超過92%.ZnO:Ti薄膜可以用作薄膜太暘能電池和液晶顯示器的透明電極.
이용직류자공천사법재실온수랭파리츤저상성공지제비출료참태양화자(ZnO:Ti)투명도전박막.연구료파츤간거대ZnO:Ti박막결구、형모화광전성능적영향.연구결과표명,파츤간거대ZnO:Ti박막적결구화전조솔유현저영향.X사선연사(XRD)표명,ZnO:Ti박막위륙각섬자광결구적다정박막,차구유c축택우취향.재파츤간거위4.6 cm시,실험획득적ZnO:Ti박막전조솔구유최소치4.18×10~(-4)Ω·cm.실험제비적ZnO:Ti박막구유량호적부착성능,가견광구평균투과솔초과92%.ZnO:Ti박막가이용작박막태양능전지화액정현시기적투명전겁.
Transparent conducting ZnO:Ti films with high transparency and relatively low resistivity were successfully prepared by DC frequency magnetron sputtering at room temperature. The effects of the distance between target and substrate on the structures, morphologies and optic-electronic properties of ZnO:Ti films were investigated. The experimental results show that the distance between target and substrate is an important factor to the crystal structure and optic-electronic properties of ZnO:Ti films. XRD studies reveal that all the films are polyerystalline with a hexagonal structure and a preferred orientation along the e-axis. The lowest resistivity achieved is 4.18 × 10~(-4)Ω·cm at 4.6 cm distance between target and substrate.All the films present a high transmittance of above 92% in the visible range. ZnO: Ti films with high transparency and relatively low resistivity deposited at room temperature will be used as transparent electrode in thin film solar cells and liquid crystal display.