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器件网格划分方法的教学总结与归纳 被引量:1
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作者 余晨辉 葛张峰 +1 位作者 罗向东 孙玲 《大学教育》 2017年第1期92-94,共3页
网格划分是半导体器件模拟仿真任务中的重点和难点。以使用工具软件Sentaurus TCAD对PN结进行模拟仿真为例,介绍了器件网格划分的步骤与策略,并对网格划分的两种主要方法,空间几何区域方法与器件物理结构方法,进行详细的归纳与总结,指... 网格划分是半导体器件模拟仿真任务中的重点和难点。以使用工具软件Sentaurus TCAD对PN结进行模拟仿真为例,介绍了器件网格划分的步骤与策略,并对网格划分的两种主要方法,空间几何区域方法与器件物理结构方法,进行详细的归纳与总结,指出使用不同方法的前提条件,分析不同划分方法和策略对网格结果的影响,为微电子和半导体相关专业课程的学习提供参考借鉴。 展开更多
关键词 器件模拟仿真 网格划分 步骤与策略 空间几何区域 器件物理结构
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Organic thin-film solar cells:Devices and materials 被引量:9
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作者 LI ZhiGang1, ZHAO XinYan2, LI Xin1,2, GAO ZhiQiang1, MI BaoXiu1 & HUANG Wei2 1Jiangsu Engineering Centre for Flat-Panel Displays & Solid-state Lighting and School of Materials Science & Engineering, Nanjing University of Posts & Telecommunications, Nanjing 210046, China 2Key Laboratory for Organic Electronics & Information Displays (KLOEID) Institute of Advanced Materials (IAM), Nanjing University of Posts & Telecommunications, Nanjing 210046, China 《Science China Chemistry》 SCIE EI CAS 2012年第4期553-578,共26页
In recent years, the performance of organic thinfilm solar cells has gained rapid progress, of which the power conversion efficiencies (r/p) of 3%-5% are commonly achieved, which were difficult to obtain years ago a... In recent years, the performance of organic thinfilm solar cells has gained rapid progress, of which the power conversion efficiencies (r/p) of 3%-5% are commonly achieved, which were difficult to obtain years ago and are improving steadily now. The r/p of 7.4% was achieved in the year 2010, and r/p of 9.2% was disclosed and confirmed at website of Mitsubishi Chemical in April, 2011. The promising future is that the r/p of 10% is achievable according to simulation results. Apparently, these are attributed to material innovations, new device structures, and also the better understanding of device physics. This article summarizes recent progress in organic thinfilm solar cells related to materials, device structures and working principles. In the device functioning part, after each brief summary of the working principle, the methods for improvements, such as absorption increment, organic/electrode interface engineering, morphological issues, are addressed and summarized accordingly. In addition, for the purpose of increasing exciton diffusion efficiency, the benefit from triplet exciton, which has been proposed in recent years, is highlighted. In the active material parts, the chemical nature of materials and its impact on device performance are discussed. Particularly, emphasis is given toward the insight for better understanding device physics as well as improvements in device performance either by development of new materials or by new device architecture. 展开更多
关键词 organic solar cell photovoltaic devices materials
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