论文部分内容阅读
金属有机框架(MOFs)是近二十年来发展最为迅猛的晶态多孔材料,在气体吸附、分离、发光、传感和催化领域具有潜在的应用前景。在众多的发光MOFs,其量子产率普遍偏低,一般都不超过20％,因此制备高亮发光的MOFs 已成为科研工作者的研究热点[1]。
高量子产率、高稳定性的Zn4O核壳结构金属有机框架
【摘 要】
：
金属有机框架(MOFs)是近二十年来发展最为迅猛的晶态多孔材料,在气体吸附、分离、发光、传感和催化领域具有潜在的应用前景。在众多的发光MOFs,其量子产率普遍偏低,一般都不超过20％,因此制备高亮发光的MOFs 已成为科研工作者的研究热点[1]。
【机 构】
：
韩山师范学院化学与环境工程学院,广东潮州市,521041
【出 处】
：
中国化学会第八届全国配位化学会议
【发表日期】
：
2017年10期
其他文献
将二氧化碳(CO2)催化转化为有商业应用价值的化工产品是能源材料化学所面临的一项长期的挑战。目前，各种均相催化体系完成对CO2的活化转化，往往需要高温高压的条件，且分离提纯成本高；而采用高效的多孔非均相催化剂有望解决这一难题。
Slow Magnetic Relaxation Behaviors within twoDy2Single-MoleculeMagnetswith Single-crystal to Single-
A dinucleardysprosium complex [Dy2(DMOMP)2(DBM)4]2·CHCl3(1)(DMOMP = 1-methyl-3,5-dimethoxy-4-hydroxybenzene)bridged by DMOMP and correspondingdesolvatedcomplex Dy2(L)2(DBM)4(2)obtained by single-cryst
A Cu(Ⅱ)-Organic Framework for Highly Selective Catalysis in Phenol Hydroxylation to Catechol and Hyd
Regioselective oxidation of phenol to corresponding catechol(CAT)and hydroquinone(HQ)over a heterogeneous catalyst is an important and challenging reaction in the industry.
A triptycene-based porous hydrogen-bonded organic framework for guest incorporation with tailored fi
A hydrogen-bonded organic framework(HOF)was constructed by avoiding potential π–π stacking of building blocks with robust and non-coplanar triptycene-based modules.
Because of the discovery of a high-symmetry rare-earth hexanuclear secondary building unit,controllable design and assembly of rare-earth organic frameworks have become feasible [1-4].
Molecules with large two-photon absorption(TPA)have potential applications in imaging,optical data storage,and photon switch.
晶体中的缺陷可以调节光诱导电荷的分离,被认为是影响光催化能否实现的关键因素1,2 3,但到目前为止,关于缺陷的类型和缺陷的浓度与催化活性的关系仍存在许多有争议的问题。
Cyclometalated N^C^N Platinum(Ⅱ)Complexes:Synthesis,Characterization,Electrochemical,Photophysical,a
Square-planar platinum(Ⅱ)complexes have attracted much attention in recent years due to their intriguing spectroscopic and photophysical behaviors arising from the diversity of the metal-ligand chromo
Proton-conduction materials are key components of fuel cells and transport protons from the anode to the cathode for the reduction of oxygen to produce an electrical current.
Luminescent stimuli-responsive materials are of great interest owing to their potential technology applications as smart photoactive materials.