Recent progress in iodine capture by macrocycles and cages
文献信息
Weinan Zhou, Dawei Zhang
The effective capture of radioiodine is vital to the development of the nuclear industry and ecological environmental protection. There is, therefore, a continuously growing research exploration in various types of solid-state materials for iodine capture. During the last decade, the potential of using macrocycle and cage-based supramolecular materials in effective uptake and separation of radioactive iodine has been demonstrated. Interest in the application of these materials in iodine capture originates from their diversified porous characteristics, abundant host–guest chemistry, high iodine affinity and adsorption capacity, high stability in various environments, facile modification and functionalization, and intrinsic structural flexibility, among other attributes. Herein, recent progress in macrocycle and cage-based solid-state materials, including pure discrete macrocycles and cages, and their polymeric forms, for iodine capture is summarized and discussed with an emphasis on iodine capture capacities, mechanisms, and design strategies.
相关文献
SSZ-60: a new large-pore zeolite related to ZSM-23
Allen Burton, Saleh Elomari
DOI: 10.1039/B410010G
Synthesis and photocleavage of a new dimeric bis(o-nitrobenzyl) diether tether
Nandita Madhavan, Mary S. Gin
DOI: 10.1039/B408482A
Hierarchically ordered CdS doped nanoporous membrane
Weon-Sik Chae, Sang-Wook Lee, Sung-Jae Im, Sik-Won Moon, Wang-Cheol Zin, Jin-Kyu Lee, Yong-Rok Kim
DOI: 10.1039/B410631H
A chiroptical molecular switch with perfect stereocontrol
Richard A. van Delden, Matthijs K. J. ter Wiel, Ben L. Feringa
DOI: 10.1039/B312170D
Polyhedral monocarbaborane chemistry. Carboxylic acid derivatives of the [closo-2-CB9H10]− anion
Andreas Franken, Colin A. Kilner, John D. Kennedy
DOI: 10.1039/B311853N
Spherical carbon capsules with hollow macroporous core and mesoporous shell structures as a highly efficient catalyst support in the direct methanol fuel cell
Geun Seok Chai, Suk Bon Yoon, Jung Ho Kim, Jong-Sung Yu
DOI: 10.1039/B412747C
Thermally stable macroporous zirconium phosphates with supermicroporous walls: a self-formation phenomenon of hierarchy
Tie-Zhen Ren, Zhong-Yong Yuan, Bao-Lian Su
DOI: 10.1039/B410763B
Ethanol vapor-mediated maturing for the enhancement of structural regularity of hexagonal mesoporous silica films
Akihiro Okabe, Makiko Niki, Takanori Fukushima, Takuzo Aida
DOI: 10.1039/B410095F
Oxygenation of thiolates to S-bonded sulfinate in an iron(iii) complex related to nitrile hydratase
Erwan Galardon, Michel Giorgi, Isabelle Artaud
DOI: 10.1039/B312318A
Aqueous hydrogenation of carbon dioxide catalysed by water-soluble ruthenium aqua complexes under acidic conditions
Hideki Hayashi, Seiji Ogo, Shunichi Fukuzumi
DOI: 10.1039/B411633J
您可能还喜欢
十二烷基磺酸钠(CAS号:2386-53-0)的主要用途是什么?
十二烷基磺酸钠主要用作表面活性剂,广泛应用于洗涤剂、肥皂、化妆品和工业清洁产品中。它能有效去除油脂和污垢,常用于制造洗发水、沐浴露、洗衣粉和金属清洗剂。此外,它...
5-羟基异喹啉(CAS号:2439-04-5)适用哪些法规指南?
5-羟基异喹啉作为化学品,主要适用的法规包括GHS全球化学品统一分类和标签制度,REACH法规等。GHS将5-羟基异喹啉分类为皮肤腐蚀/刺激类别2,严重眼损伤/...
在合成中是否有FIDAS-5 | Wnt(CAS号:1391934-98-7)的替代品?
合成中可以考虑使用类似结构的化合物,如4-[(E)-2-(2-氯-6-氟苯基)乙烯基]-N-甲基苯胺的类似物或衍生物作为替代品。这类化合物可能具有相似的生物活性...
(R)-tert-Butyl 2-(5-bromo-1H-imidazol-2-yl)pyrrolidine-1-carboxylate(CAS号:1370600-56-8)通常如何合成?
该化合物通常通过如下步骤合成:首先,将4-溴-1H-咪唑与对甲苯磺酸在乙酸乙酯中反应,得到中间体5-溴-1H-咪唑-2-甲酸乙酯。然后,该中间体与2-甲基-2-...
处理4-(吡咯烷-1-基)环己酮(CAS号:10421-18-8)时应注意哪些实验室安全事项?
处理4-(吡咯烷-1-基)环己酮时,应佩戴手套、护目镜和实验室外套,以防止直接接触或吸入。在通风橱中操作,确保良好的通风条件。一旦发生泄漏,应立即清理并使用适当...
如何处理含有异麦芽糖醇(CAS号:534-73-6)的废料?
含有异麦芽糖醇的废液应首先进行分类收集,避免与其他化学品混合。对于小规模的废液,可以通过焚烧或加入特定的化学试剂进行无害化处理。对于大规模的废液,建议联系专业的...
7-甲基壬酸(CAS号:41653-89-8)的主要用途是什么?
7-甲基壬酸主要用于有机合成领域,作为合成其他化合物的原料。此外,它还可能作为一种中间体用于药品制造和香料合成,但具体用途需要根据其具体的化学结构和反应特性来确...
N-甲氧基-N-甲基甲基吡啶羧酰胺(CAS号:148493-07-6)应用于哪些行业?
N-甲氧基-N-甲基甲基吡啶羧酰胺在医药领域有一定的应用,作为一种潜在的药物前体或中间体。此外,该化合物也可能应用于聚合物改性剂、传感器材料等。由于其独特的化学...
什么是惕各酸香叶酯(CAS号:7785-33-3)?
惕各酸香叶酯是一种化合物,化学名称为(2E)-3,7-二甲基-2,6-辛二烯-1-基(2E)-2-甲基-2-丁烯酸酯。它是一种具有香叶香气的化合物,分子式为C1...
1-环丁基哌嗪(CAS号:132800-13-6)安全吗?
1-环丁基哌嗪在适当的操作条件下是相对安全的,但如遇明火或高热会释放有毒气体。操作时应佩戴防护眼镜和手套,避免吸入或接触皮肤、眼睛。
来源期刊
Chemical Communications

ChemComm publishes urgent research which is of outstanding significance and interest to experts in the field, while also appealing to the journal’s broad chemistry readership. Our communication format is ideally suited to short, urgent studies that are of such importance that they require accelerated publication. Our scope covers all topics in chemistry, and research at the interface of chemistry and other disciplines (such as materials science, nanoscience, physics, engineering and biology) where there is a significant novelty in the chemistry aspects. Major topic areas covered include: Analytical Chemistry Catalysis Chemical Biology and medicinal chemistry Computational Chemistry and Machine Learning Energy and sustainable chemistry Environmental Chemistry Green Chemistry Inorganic Chemistry Materials Chemistry Nanoscience Organic Chemistry Physical Chemistry Polymer Chemistry Supramolecular Chemistry














