桃子汉化组移植游戏大全:学术通知
广大师生:
华南理工大学“海内外优秀青年学者论坛”于2015年11月首次启动,旨在面向全球邀请拥有不同学术背景的青年才。乒士蒲把、热点研究领域以及行业产业的技术问题等展开探讨和交流。通过这个平台,互相启迪、开拓视野,增强国际交流与合作,促进双方共同发展。
一、论坛时间
2019年11月26日(周二)上午9:00
二、地点
广州市天河区五山路381号华南理工大学五山校区北区科技园2号楼324报告厅
三、论坛议程
日期 | 时间 | 事项或议程 |
11月26日(周二)上午 | 9:00-9:10 开幕式 | 桃子汉化组移植游戏大全领导致欢迎词 |
9:10-11:25 学术报告 (每位45分钟) | 题目:Screw Dislocation-Driven Growth of 1D and 2D Nanomaterials and Their Electrochemical Applications 报告人:梁汉锋博士,沙特阿卜杜拉国王科技大学材料科学与工程系 | |
题目:Ferroelectric Fluid showing gigantic polarization properties 报告人:西川浩矢博士,日本国立研究开发法人理化学研究所(RIKEN-CEMS) | ||
题目:Virus Protein Cages as Building Blocks for Functional Materials 报告人:刘爱洁 博士,瑞典乌普萨拉大学物理化学系 |
欢迎广大师生参加!
分子科学与工程桃子汉化组移植游戏大全
华南软物质科学与技术高等研究院
2019年11月18日
附件:
1. Screw Dislocation-Driven Growth of 1D and 2D Nanomaterials and Their Electrochemical Applications (梁汉锋博士)
摘要:
One-dimensional (1D) and two-dimensional (2D) nanostructures have exhibited unique fundamental physical properties and demonstrated promising applications in energy storage and conversion. The challenge in growing anisotropic nanostructures is to break the symmetry of crystal growth to promote the formation of highly anisotropic instead of polyhedral crystals. In this talk, I will discuss a “new” growth mechanism that is fundamentally different from the commonly used metal catalysts-driven growth (such as vapor-liquid-solid, VLS), in which screw dislocations provide the self-perpetuating steps to enable 1D or 2D crystal growth. I will further discuss the generality and significance of this growth mechanism as well as the electrochemical applications of the resulting structures.
报告人简介:
梁汉锋博士本硕博均就读于厦门大学,于2015年9月获得应用化学博士学位,同年12月赴沙特阿卜杜拉国王科技大学从事博后工作至今。梁博士长期从事纳米材料的可控合成及电化学催化储能应用研究,在螺旋位错驱动生长一、二维纳米材料及等离子体材料制备及缺陷调控方面取得一系列成果,迄今已发表SCI论文60余篇,引用3000余次。
2. Ferroelectric Fluid showing gigantic polarization properties (西川浩矢博士)
摘要:
A liquid crystal (LC) compound bearing a 1,3-dioxane unit in the mesogenic core (DIO) exhibits an anomalously large dielectric permittivity of ca. 104 in a polar nematic phase (NP) with high fluidity unlike conventional LC. In this temperature range of NP phase, no sharp X-ray diffraction peak is observed at any Bragg angles, similar to that for a nematic phase; however, a inhomogeneous sandy texture is observed through a polarizing optical microscopy, unlike that for a conventional nematic phase. Besides, NP phase exhibits polarization switching with a large polarization value, i.e., P = 4.4 μC cm?2, and a parallelogram-shaped polarization–electric field hysteresis loop, which is also observed in ferroelectrics. The heterogeneously aligned DIO molecules in the ground state shows the tendency of a uniform orientation along the applied electric field, a field-induced polarization switching occurs at the same time. Sufficiently larger second-harmonic generation (SHG) activity is also observed in NP phase. Furthermore, SHG interferometry clearly shows the polarization inversion by reversing the applied electric field in NP phase. These results suggest that a unidirectional, ferroelectric-like parallel polar arrangement of the molecules would be generated along the director in NP phase. For a possible model for large polarization behavior in NP phase, we would like to talk on the day of presentation.
报告人简介:
西川浩矢博士于2011年在日本龙谷大学材料系获得学士学位,分别于2013年3月,2018年3月于日本九州大学综合理工学府量子处理专攻获得硕士及博士学位。2018年-至今在国立研究开发法人理化学研究所从事博士后研究。从事高分子液晶,强诱电材料,超巨大分极材料的研究。在强诱电性液晶,手性构造液晶等方面发表论著5 篇,其中包括Advanced materials、Chemistry open 等刊物,并在重要国际会议做邀请报告。
3. Virus Protein Cages as Building Blocks for Functional Materials(刘爱洁博士)
摘要:
The use of protein architectures for bionanotechnology applications is a rapidly emerging field. Protein cages have been widely used as nano-carriers and nano-templates. By mimicking nature, protein cages has provide a platform to mimic and understand enzymatic activity through integration of reaction reagents in the confinement. However, considering the intrinsic properties of virus protein cages, e.g., dynamic structures, surface charge distributions and limited pores etc., the use of protein cage architectures in functional materials has not fully explored yet. In this work, I will introduce plant virus, Cowpea Chlorotic Mottle Virus (CCMV) as building block to construct multifunctional materials. Where the focus is on gold as a catalyst, to further explore its application as a nanoreactor, but also as the construction material for functional films by either cross-linking the protein cages or using them as a template for silica synthesis.
报告人简介:
刘爱洁博士在荷兰特文特大学化学系导师Jeroen.J.L.M.Cornelisson带领的生物分子与纳米工程完成博士工作,并于2017年9月获得博士学位。2018年2月-至今在瑞典乌普萨拉大学物理化学系田海宁老师带领的人工光催化组从事博士后研究。刘爱洁博士在病毒蛋白自组装、纳米反应器制备及表征,异相催化、人工光催化等方面取得了一系列较为突出的创新成果。在催化和功能材料领域核心期刊和国际会议上已发表论文11篇,包括ACS Catalysis、Advanced Functional Materials等。