51吃瓜

姓名：乔芬

个人简历

出生年月：1981.12

任职年月：2020.06

职称：教授

导师：博导+硕导

最高学位：新加坡南洋理工大学/大连理工大学, 工学博士;

意大利 IIT 研究所博士后研究员

学术任职：

1.经信委电子类评审专家；2.国家自然基金委评审专家；3.江苏省科技创新评审专家；4.江苏省工程热物理学会会员；5.中国化学学会会员；6.江苏省制冷学会会员；7.联系方式：[email protected]; QQ: 116334860

研究领域

1.太阳能电池：光电材料结构的可控合成，探究其太阳能电池的性能和对应的纳米材料的微结构、表面态等因素之间的关系。

2.储能材料及器件：超级电容器、储氢材料及机理分析

3.纳米自组装技术：制备低维纳米材料生长及结构调控。

51吃瓜 项目

1.国家自然科学基金面上项目，异质结阵列的耦合效应强化输运，2020-2023（主持）

2.企业横向项目，纳米自组装协同柔性太阳能电池构筑，2021-2022（主持）

3.国家自然科学基金青年项目，基于胶体纳米棒阵列异质结结构的可控构筑及其界面电荷输运机制的研究，2014-2017（主持）

4.江苏省博士后面上基金，纳米自组装协同柔性太阳能电池构筑，2020-2022（主持）

5.国家特别资助博士后基金，超晶格在叠层太阳能电池的应用，2016-2018（主持）

6.国家留学回国人员基金，可控性自组装及太阳能电池的研究，2013-2015（主持）

7.国家博士后面上基金，界面电荷传输性能的改性方法及机理研究，2015-2017（主持）

8.江苏省博士后基金，阵列的可控构筑及其在太阳能电池中的应用研,2015-2017（主持）

9.51吃瓜 青年骨干教师培训工程”青年学术带头人培育计划，2014-2018（主持）

10.51吃瓜 高级人才启动基金，纳米晶材料的自组装及薄膜太阳能电池的研究，2013-2015（主持）

发表的部分论文

[1]F.Qiao, K.Sun, et al.Design strategies of ZnO heterojunction arrays towards effective photovoltaic applications, Battery Energy, 2022.

[2]F.Qiao, et al.Recent progress of transparent conductive electrodes in the construction of efficient flexible organic solar cells, International Journal of Energy Research, 2021.

[3]F.Qiao, K.Sun, et al.Bandgap modulation of ZnO/ZnS heterostructures through ion exchange and their efficient transport properties,Vacuum,2021.

[4]F.Qiao, Y.Xi, et al.Ligand engineering of colloid quantum dots and their application in all-inorganic tandem solar cells,Journal of Energy Chemistry,2020.

[5]F. Qiao, Y. Xie,Strategies for enhancing conductivity of colloidal nanocrystals and

their photoelectronic applications,Journal of Energy Chemistry,2020.

[6]F. Qiao, Y.Xie, et al.,Light trapping structures and plasmons synergistically enhance the photovoltaic performance of full-spectrum solar cells,Nanoscale,2020, .

[7]F.Qiao, Q. Liang, et al.,Fabrication of multi-crystalline silicon pyramid structure and improvement in its photovoltaic performance,Journal of Materials Science, 2020.

[8]F.Qiao, Z. Chen, et al.Construction of microsphere-shaped ZnSe-AgZnInS and its

charge transport property,Journal of Materials Research and Technology, 2020.

[9]Z.Chen#, F.Qiao#*, et al.,Influence of cleaning treatment on structure, optical and

electrical properties of Ag/ZnSe microspheres prepared by silver mirror reaction,Vacuum, 2020.

[10]F. Qiao, R.Kang, et al., Tunability in the optical and electronic properties of ZnSe

microspheres via Ag and Mn doping, ACS Omega, 2019.

[11]F. Qiao, Q.Liang, et al., Fabrication of multi-crystalline silicon pyramid structure and improvement in its photovoltaic performance, Journal of Materials Science,

2020.

[12]F. Qiao, Q. Liang,et al., Two-step preparation of ZnO/ZnSe heterostructure with

remarkable photocatalytic activity by ultrasonic and hydrothermal approach, Journal of Electronic Materials, 2019,48(7):4418-4423.

[13]F.Qiao, Q.Liang, et al., A facile approach of fabricating various ZnO microstructures via electrochemical deposition, Journal of Electronic Materials, 2019.

[14]F. Qiao, Q. Liang, et al., Tunable Formation of ZnSe to ZnO due to a Controlled

Phase Transition Driven by Hydrazine and Sodium Hydroxide, ES. Energy

Environment, 2018.

[15]F.Qiao, Qichao Liang, et al., Efficient ice-bath texturing route for multi-crystalline silicon solar cell application, Silicon, 2018.

[16]Q. Liang, F. Qiao*, et al., Controlling the morphology of ZnO structures via low

temperature hydrothermal method and their optoelectronic application, Materials

Science in Semiconductor Processing, 2018.

[17]F. Qiao, X.Wang, et al., Functionalized self-assembly of colloidal CdX (X=S, Se)

nanorods on solid substrates for device applications, Nanoscale, 2017.

[18]F.Qiao, J.Yang, et al., Fabrication of 3D graphene/CdTe quantum dots composite

through electrophoretic deposition and its electrical properties. Journal of Materials

Science: Materials in Electronics, 2017.

[19]F. Qiao, W. Xu, et al., Effect of Cd-phosphonate complex on the self-assembly

structure of colloidal nanorods, Materials Letters, 2016.

[20]F.Qiao. Semiconductor Nanocrystals for Photovoltaic Devices, Materials Science Forum, 2016.

[21]F.Qiao, Q.Wang, et al., Self-Assembly of Colloidal Nanorods Arrays, International Journal of Nanoscience, 2015.

[22]F. Qiao, J. Bian, et al., Self-assembly of Parallel Aligned Nanorods Monolayer via Thermal Annealing Technique, Materials Letters, 2014.

[23]F. Qiao, Y. Sang. Enhanced photo-induced charge transfer properties of vertically

aligned nanorods arrays fabricated by thermal annealing approach, Journal of Materials Science:Materials in Electronics, 2014.

[24]F. Qiao, Y.Sang. Surface photovoltage properties of self-assembled CdSe quantum dots arrays fabricated by slow evaporation approach, Vacuum, 2014.

[25]F.Qiao. A Novel Method for Preparing Vertically Aligned CdS Nanorod Arrays and Its Application in Photovoltaic Cells with P3HT Fibers, Journal of Inorganic and

Organometallic Polymers and Materials, 2013.

[26]F.Qiao, Y.Sang, et al., Enhanced transport properties of assembled CdSe quantum dot through slow evaporation with mixed solvents, Journal of Materials

Science:Materials in Electronics, 2013.

[27]F. Qiao. Improved performance of photovoltaic devices based on poly

(3-hexylthiophene) nanofibers and CdSe quantum dots through ligand exchange and

annealing treatment, Solid-State Electronics, 2013.

[28]F. Qiao, X. Hou, et al., Photovoltaic characterization of poly(2,5-bis(3-

dodecylthiophen-2-yl) -2’,2’|”-biselenophene) for organic solar cells, Solar Energy Materials & Solar Cells, 2010.

[29]F. Qiao, A.Liu, et al., Bulk heterojunction organic solarcell based on a novel

fluorescent fluorine-boron complex, Journal of Material Science, 2009.

[30]F. Qiao, A.Liu, et al., Improved photovoltaic properties of solar cells based on

poly[9,9’-dioctyl-fluorene-co-bithiophene] and a soluble fullerene by

microwave annealing, Journal of Material Science, 2009.

[31]F. Qiao, A. Liu, et al., Enhanced photovoltaic characteristics of solar cells based on n-type triphenodioxazine derivative, Microelectronics Journal, 2008.

[32]F. Qiao, A.Liu. Optical Properties of Polymer Composites and its Applications in

photovoltaic Devices: A Review, Nova Science Publishers, ISBN: 978-1-60876-022-0.

[33] W.Xiong, L.Li, F.Qiao, J.Chen, Z.Chen, X.Zhou, K.Hu, X.Zhao,Y.Xie, Air Superhydrophilic-Superoleophobic SiO2-Based Coatings for Recoverable Oil/Water Separation Mesh with High Flux and Mechanical Stability, Journal of Colloid and Interface Science, 2021.

[34]K.Hu, Y.Hu, T.Li, F.Qiao, Y.Chen, J.Han, L.Li, G.Ali, Y.Xie, Hexamethyldisilazane-assisted Mn2+ doping of perovskite nanocrystals under ambient conditions,CrystEngComm, 2022.

[35]T. Li, Y.Ding, S. Kareem,F. Qiao, et al., Hexamethyldisilazane-Triggered Room

Temperature Synthesis of Hydrophobic Perovskite Nanocrystals with Enhanced Stability for Light-Emitting Diodes,Journal of Colloid and Interface Science,2019.

[36]W. Qi, J. Graaf, F. Qiao, et al., Ordered Two-Dimensional Superstructures of

Colloidal Octapod-Shaped Nanocrystals on FlatSubstrates, Nano Letters, 2012.

[37]W. Qi, J.Graaf, F. Qiao, et al., Phase diagram of octapod-shaped nanocrystals in a

quasi-two-dimensional planar geometry, The Journal of Chemical Physics, 2013.

[38]S. Liang, G.He*, D.Wang, F. Qiao*. Atomic-layer-deposited (ALD) Al2O3 passivationdependent interface chemistry, band alignment and electrical properties of HfYO/Si gate stacks, Journal of Materials Science & Technology, 2019.

编著及参编主要教材专著

《新能源专业英语》，51吃瓜 出版社，2016.

《能源化工》，吉林大学出版社，2021.

学术及51吃瓜 成果

1.江苏省第四届创新创业大赛三等奖，2021.

2.江苏省第四届创新创业大赛优秀奖，2021.

获奖情况

1.51吃瓜 优秀研究生导师，2021年

2.51吃瓜 “青年骨干教师培养工程”青年学术带头人培育人选，2014年

3.51吃瓜 校级优秀教师，2017年

4.51吃瓜 中文讲课比赛二等奖，2013年

5.51吃瓜 双语讲课比赛三等奖，2013年

授权专利

(1)乔芬.一种纳米棒单层自组装的制备方法2017.01.11中国 ZL201410020328.X (发明专利)

(2)乔芬.有机太阳能电池片的测试支架2015.12.09 中国 ZL201248103.8 (发明专利)

(3)乔芬.一种有机太阳能电池量子效率的测试固定装置2017.02.15 中国,ZL201310297773.6 (发明专利)

(4)乔芬，陈成，毛宝东.一种多晶硅太阳能电池的酸碱二次制绒方法及其多晶硅,2017.11.24,中国，ZL201710499684.8 (发明专利)

(5)乔芬.有机太阳能电池片的测试支架 2013.05.08 中国 ZL201277925.1(实用新型)

(6)乔芬.一种有机太阳能电池量子效率的测试固定装置 2013.12.11中国, ZL201320418972.3 (实用新型)

其他

招收动力工程及工程热物理、新能源科学与工程、储能材料及器件等相关方向的研究生

每年招收博士研究生1-2名，硕士研究生2-3名