Electrosynthesis of biologically active dicycloalkyl di- and trisulfides involving an H2S—S8 redox system

被引:0
|
作者
N. T. Berberova
I. V. Smolyaninov
E. V. Shinkar
V. V. Kuzmin
D. B. Sediki
A. V. Shevtsova
机构
[1] Astrakhan State Technical University,Southern Scientific Center
[2] Russian Academy of Sciences,undefined
来源
Russian Chemical Bulletin | 2018年 / 67卷
关键词
organic polysulfides; cycloalkanes; hydrogen sulfide; sulfur; redox activation; cyclic voltammetry; electrosynthesis;
D O I
暂无
中图分类号
学科分类号
摘要
Biologically active dicycloalkyl di- and trisulfides were prepared by the reactions of cycloalkanes C5—C7 with H2S and S8 under the anodic (cathodic) activation of hydrogen sulfide. In dichloromethane, the electrochemical activation of H2S in the presence of sulfur can generate sulfur-centered radical intermediates that react with cycloalkanes at room temperature. The current yield of di- and trisulfides depends on the method of redox activation of hydrogen sulfide, the concentration of sulfur, and the time of electrosynthesis. The anodic activation of hydrogen sulfide in the synthesis of dicycloalkyl di- and trisulfides in an excess S8 is more efficient than the cathodic activation. In the series of cycloalkanes C5—C7, the highest yield of sulfur-containing products is observed for cycloheptane.
引用
收藏
页码:108 / 113
页数:5
相关论文
共 50 条
  • [31] Catalytic promiscuity and heme-dependent redox regulation of H2S synthesis
    Banerjee, Ruma
    CURRENT OPINION IN CHEMICAL BIOLOGY, 2017, 37 : 115 - 121
  • [32] Redox Potential as a Means to Control the Treatment of Slurry to Lower H2S Emissions
    Hjorth, Maibritt
    Pedersen, Christina O.
    Feilberg, Anders
    SENSORS, 2012, 12 (05) : 5349 - 5362
  • [33] Polysulfide-Based Aqueous Redox Flow Batteries Enhanced by Carbon Electrodes with S8/S x 2- Redox Pairs and Hydrophilic Carbon Nanocuboids
    Yu, Xiao-Fei
    Lin, Zi-Xin
    Gao, Haiguang
    Wang, Haoxi
    Shao, Dao-Yu
    Shi, Yanjun
    Xu, Juan
    Huang, Yucheng
    Cao, Jianyu
    ACS APPLIED ENERGY MATERIALS, 2025,
  • [34] The geochemistry and sequestration of H2S into the geothermal system at Hellisheidi, Iceland
    Stefansson, Andri
    Arnorsson, Stefan
    Gunnarsson, Ingvi
    Kaasalainen, Hanna
    Gunnlaugsson, Einar
    JOURNAL OF VOLCANOLOGY AND GEOTHERMAL RESEARCH, 2011, 202 (3-4) : 179 - 188
  • [35] SCADA SYSTEM OVERSEES CANADIAN H2S FIELD, PIPELINES
    GREENSLADE, JG
    WICHERT, E
    OIL & GAS JOURNAL, 1992, 90 (21) : 33 - &
  • [36] BIOCONVERSION OF LIGNOSULFONATE INTO LIGNIN AND H2S BY MUTUALISTIC BACTERIAL SYSTEM
    TYAGI, RD
    TRAN, FT
    POLPRASERT, C
    JOURNAL OF MICROBIAL BIOTECHNOLOGY, 1988, 3 (02): : 90 - 98
  • [37] Thioglycine and L-thiovaline: Biologically active H2S-donors
    Zhou, Zongmin
    Rekowski, Margarete von Wantoch
    Coletta, Ciro
    Szabo, Csaba
    Bucci, Mariarosaria
    Cirino, Giuseppe
    Topouzis, Stavros
    Papapetropoulos, Andreas
    Giannis, Athanassios
    BIOORGANIC & MEDICINAL CHEMISTRY, 2012, 20 (08) : 2675 - 2678
  • [38] Molecular dynamic simulation of sulfur solubility in H2S system
    Chen, Huasheng
    Liu, Chao
    Xu, Xiaoxiao
    INTERNATIONAL JOURNAL OF MODERN PHYSICS B, 2019, 33 (08):
  • [39] Trisulfides over disulfides: highly selective synthetic strategies, anti-proliferative activities and sustained H2S release profiles
    Bhattacherjee, Debojit
    Sufian, Abu
    Mahato, Sulendar K.
    Begum, Samiyara
    Banerjee, Kaustav
    De, Sharmistha
    Srivastava, Hemant Kumar
    Bhabak, Krishna P.
    CHEMICAL COMMUNICATIONS, 2019, 55 (90) : 13534 - 13537
  • [40] Fluorescent Detection of Dynamic H2O2/H2S Redox Event in Living Cells and Organisms
    Yang, Lei
    Zhang, Yun
    Ren, Xiaojie
    Wang, Benhua
    Yang, Zhaoguang
    Song, Xiangzhi
    Wang, Wei
    ANALYTICAL CHEMISTRY, 2020, 92 (06) : 4387 - 4394