In vitro degradation of tropoelastin by reactive oxygen species

被引:25
|
作者
Hayashi, A
Ryu, A
Suzuki, T
Kawada, A
Tajima, S
机构
[1] Natl Def Med Coll, Dept Dermatol, Tokorozawa, Saitama 359, Japan
[2] Kose Corp, Res Lab, Itabashi Ku, Tokyo 1740051, Japan
关键词
reactive oxygen species; elastin; degradation;
D O I
10.1007/s004030050342
中图分类号
R75 [皮肤病学与性病学];
学科分类号
100206 ;
摘要
The effects of reactive oxygen species (ROS) on elastin molecules (tropoelastin) mere studied in vitro. ROS generated by ultraviolet A and hematoporphyrin rapidly degraded tropoelastin within 5 min. Their degradative activity was inhibited by the addition of NaN3. Treatment of tropoelastin with copper sulfate/ascorbic acid resulted in degradation of tropoelastin producing fragments of molecular weight 45, 30 and 10 kDa within 30 min. The degradation of tropoelastin was partially blocked by the addition of mannitol. ROS induced by the xanthine/xanthine oxidase system also degraded tropoelastin within 6 h. The degradation was blocked by catalase but not by superoxide dismutase (SOD). ROS generated by copper-ascorbate seems to be unique in that it cleaves relatively specific sites of the tropoelastin molecule. Thus ROS may play a degradative role in elastin metabolism which may cause the elastolytic changes or the deposition of fragmented elastic fibers in photoaged skin or age-related elastolytic disorders.
引用
收藏
页码:497 / 500
页数:4
相关论文
共 50 条
  • [31] Human hair proteins as natural reactive oxygen species scavengers for in vitro applications
    Lai, Hui Ying
    Setyawati, Magdiel Inggrid
    Duarte, Catarina Vizetto
    Chua, Huei Min
    Low, Choon Teck
    Ng, Kee Woei
    JOURNAL OF BIOMEDICAL MATERIALS RESEARCH PART B-APPLIED BIOMATERIALS, 2023, 111 (04) : 933 - 945
  • [32] The effect of electromagnetic field on reactive oxygen species production in human neutrophils in vitro
    Poniedzialek, Barbara
    Rzymski, Piotr
    Nawrocka-Bogusz, Honorata
    Jaroszyk, Feliks
    Wiktorowicz, Krzysztof
    ELECTROMAGNETIC BIOLOGY AND MEDICINE, 2013, 32 (03) : 333 - 341
  • [33] Bioimaging Probes for Reactive Oxygen Species and Reactive Nitrogen Species
    Nagano, Tetsuo
    JOURNAL OF CLINICAL BIOCHEMISTRY AND NUTRITION, 2009, 45 (02) : 111 - 124
  • [34] Reactive oxygen species trigger ischernic and pharmacological postconditioning:: In vivo and in vitro characterization
    Tsutsumi, Yasuo M.
    Yokoyama, Takaakira
    Horikawa, Yousuke
    Roth, David M.
    Patel, Hemal H.
    LIFE SCIENCES, 2007, 81 (15) : 1223 - 1227
  • [35] Comparison of sensitizers by detecting reactive oxygen species after photodynamic reaction in vitro
    Kolarova, H.
    Bajgar, R.
    Tomankova, K.
    Nevrelova, P.
    Mosinger, J.
    TOXICOLOGY IN VITRO, 2007, 21 (07) : 1287 - 1291
  • [36] Infection and reactive oxygen species
    Ochsendorf, FR
    ANDROLOGIA, 1998, 30 : 81 - 86
  • [37] Ezetimibe and Reactive Oxygen Species
    Yamaoka-Tojo, Minako
    Tojo, Taiki
    Takahira, Naonobu
    Masuda, Takashi
    Izumi, Tohru
    CURRENT VASCULAR PHARMACOLOGY, 2011, 9 (01) : 109 - 120
  • [38] Atomic-scale simulations of the deoxynivalenol degradation induced by reactive oxygen plasma species
    Li, Shanrui
    Wang, Xiaolong
    Li, Lian
    Liu, Jun
    Ding, Yunhan
    Zhao, Tong
    Zhang, Yuantao
    FOOD RESEARCH INTERNATIONAL, 2022, 162
  • [39] INTERACTION BETWEEN NEUTROPHIL-DERIVED ELASTASE AND REACTIVE OXYGEN SPECIES IN CARTILAGE DEGRADATION
    IWAMURA, H
    MOORE, AR
    WILLOUGHBY, DA
    BIOCHIMICA ET BIOPHYSICA ACTA, 1993, 1156 (03) : 295 - 301
  • [40] Reactive oxygen species and cellular oxygen sensing
    Cash, Timothy P.
    Pan, Yi
    Simon, M. Celeste
    FREE RADICAL BIOLOGY AND MEDICINE, 2007, 43 (09) : 1219 - 1225