首次设计合成了拥有超分子自组装性能、同时具有电子和离子传输性的、新型冠醚桥接苯并菲盘状液晶衍生物；合成了基于盘状分子构成的超支化聚合物；合成了具有不同液晶基元构成的盘-棒液晶、杯芳烃偶联盘状分子；合成了可交联型盘状液晶；以及其它光学活性、载流子传输特性的盘状液晶分子材料。研究了新材料的液晶相的行成规律。. 成功获得了一种盘状液晶分子材料在单基片表面的大面积垂直分子排列取向，着重探讨了垂直分子排列的取向过程，并分析了控制取向的物理机制，在单基片表面获得盘状液晶材料大面积垂直分子取向在国际相关领域范围为数不多，本研究具有重要意义；采用模板法制备出基于盘状分子/聚合物复合的纳米导线。. 研究盘状液晶材料的光电子学特性，并应用于光电子器件。从实验和理论两方面研究了盘状液晶材料的载流子迁移和与盘状液晶分子复合材料的电导特性；研究并制备了以盘状分子材料作为功能层的光伏器件，特别是不同界面引起的对光电流谱的影响；研究并制备了基于盘状分子杂化材料的光伏器件，获得了光伏响应的提高；以盘状分子为功能层制备了有机电致发光器件，获得在较宽驱动电压范围内可获得颜色稳定的蓝色有机电致发光器件。

A novel class of liquid crystalline discotic material which is able to form super-molecular self-assembly with combined conduction of electronic and ionic carriers was designed and prepared for the first time. Other new materials prepared also included disk-rod liquid crystalline materials, dendritic polymers with discotic unit, and many other optically active discotic were prepared. Phase transitions from/to liquid crystalline were investigated. . Homeotropic molecular alignment on single substrate geometry was successfully achieved. It became one of few examples in this field internationally. A possible mechanism for the control of such alignment was proposed. Also prepared was nano-fiber using porous template from a discotic polymer composite.. Optoelectronic properties were investigated and devices were prepared. Chrage carrier mobility of these discotic were measured and calculated theoretically. Devices using discotic materials as functional layers were prepared. Novel hybrid PV device were invested with improved response; an impressive color stable blue organic light emitting device at a wide range driving voltages also was achieved.

首次设计合成了拥有超分子自组装性能、同时具有电子和离子传输性的、新型冠醚桥接苯并菲盘状液晶衍生物；合成了基于盘状分子构成的超支化聚合物；合成了具有不同液晶基元构成的盘-棒液晶、杯芳烃偶联盘状分子；合成了可交联型盘状液晶；以及其它光学活性、载流子传输特性的盘状液晶分子材料。研究了新材料的液晶相的行成规律。 成功获得了一种盘状液晶分子材料在单基片表面的大面积垂直分子排列取向，着重探讨了垂直分子排列的取向过程，并分析了控制取向的物理机制，在单基片表面获得盘状液晶材料大面积垂直分子取向在国际相关领域范围为数不多，本研究具有重要意义；采用模板法制备出基于盘状分子/聚合物复合的纳米导线。 研究盘状液晶材料的光电子学特性，并应用于光电子器件。从实验和理论两方面研究了盘状液晶材料的载流子迁移和与盘状液晶分子复合材料的电导特性；研究并制备了以盘状分子材料作为功能层的光伏器件，特别是不同界面引起的对光电流谱的影响；研究并制备了基于盘状分子杂化材料的光伏器件，获得了光伏响应的提高；以盘状分子为功能层制备了有机电致发光器件，获得在较宽驱动电压范围内可获得颜色稳定的蓝色有机电致发光器件。