Biodegradation of the chitin-protein complex in crustacean cuticle

被引:81
|
作者
Stankiewicz, BA
Mastalerz, M
Hof, CHJ
Bierstedt, A
Flannery, MB
Briggs, DEG
Evershed, RP
机构
[1] Univ Bristol, Dept Geol, Biogeochem Res Ctr, Bristol BS8 1RJ, Avon, England
[2] Univ Bristol, Sch Chem, Organ Geochem Unit, Bristol BS8 1TS, Avon, England
[3] Indiana Univ, Indiana Geol Survey, Bloomington, IN 47405 USA
[4] Univ Amsterdam, Inst Systemat & Populat Biol, NL-1090 GT Amsterdam, Netherlands
关键词
chitin; proteins; crustacean cuticle; biodegradation; py-GC/MS; FTIR; HPLC;
D O I
10.1016/S0146-6380(97)00113-7
中图分类号
P3 [地球物理学]; P59 [地球化学];
学科分类号
0708 ; 070902 ;
摘要
Arthropod cuticles consist predominantly of chitin cross-linked with proteins. While there is some experimental evidence that this chitin-protein complex may resist decay, the chemical changes that occur during degradation have not been investigated in detail. The stomatopod crustacean Neogonodactylus oerstedii was decayed in the laboratory under anoxic conditions. A combination of pyrolysis-gas chromatography/mass spectrometry and FTIR revealed extensive chemical changes;after just 2 weeks that resulted in a cuticle composition dominated by chitin. Quantitative analysis of amino acids (by HPLC) and chitin showed that the major loss of proteins and chitin occurred between weeks 1 and 2. After 8 weeks tyrosine, tryptophan and valine are the mast prominent amino acid moieties, showing their resistance to degradation. The presence of cyclic ketones in the pyrolysates indicates that mucopolysaccharides or other bound non-chitinous carbohydrates are also resistant to decay. There is no evidence of structural degradation of chitin prior to 8 weeks when FTIR revealed a reduction in chitin-specific bands. The chemical changes are paralleled by structural changes in the cuticle, which becomes an increasingly open structure cconsisting of loose chitinous fibres. The rapid rate of decay in the experiments suggests that where chitin and protein are preserved in fossil cuticles degradation must have been inhibited. (C) 1998 Elsevier Science Ltd. All rights reserved.
引用
收藏
页码:67 / 76
页数:10
相关论文
共 50 条
  • [41] Spider Chitin: An Ultrafast Microwave-Assisted Method for Chitin Isolation from Caribena versicolor Spider Molt Cuticle
    Machalowski, Tomasz
    Wysokowski, Marcin
    Tsurkan, Mikhail, V
    Galli, Roberta
    Schimpf, Christian
    Rafaja, David
    Brendler, Erica
    Viehweger, Christine
    Zoltowska-Aksamitowska, Sonia
    Petrenko, Iaroslav
    Czaczyk, Katarzyna
    Kraft, Michael
    Bertau, Martin
    Bechmann, Nicole
    Guan, Kaomei
    Bornstein, Stefan R.
    Voronkina, Alona
    Fursov, Andriy
    Bejger, Magdalena
    Biniek-Antosiak, Katarzyna
    Rypniewski, Wojciech
    Figlerowicz, Marek
    Pokrovsky, Oleg
    Jesionowski, Teofil
    Ehrlich, Hermann
    MOLECULES, 2019, 24 (20):
  • [42] Exploring chitin morphologies in cuticle fragments of Xiphopenaeus kroyeri by atomic force microscopy
    Andrade, CT
    Silva, KM
    Simao, RA
    Achete, C
    CARBOHYDRATE POLYMERS, 2002, 47 (01) : 59 - 71
  • [43] Helicoidal Organization of Chitin in the Cuticle of the Migratory Locust Requires the Function of the Chitin Deacetylase2 Enzyme (LmCDA2)
    Yu, Rongrong
    Liu, Weimin
    Li, Daqi
    Zhao, Xiaoming
    Ding, Guowei
    Zhang, Min
    Ma, Enbo
    Zhu, KunYan
    Li, Sheng
    Moussian, Bernard
    Zhang, Jianzhen
    JOURNAL OF BIOLOGICAL CHEMISTRY, 2016, 291 (47) : 24352 - 24363
  • [44] Crab vs. Mushroom: A Review of Crustacean and Fungal Chitin in Wound Treatment
    Jones, Mitchell
    Kujundzic, Marina
    John, Sabu
    Bismarck, Alexander
    MARINE DRUGS, 2020, 18 (01)
  • [45] Evaluation of Manganese Retention in the Crustacean Tissue and its Implications for Chitin Product and Applications
    Schroder, Verginica
    Apetroaei, Manuela Rossemary
    Anton, Mirela Adina
    Iancu, Irina Mihaela
    Rau, Ileana
    2021 INTERNATIONAL CONFERENCE ON E-HEALTH AND BIOENGINEERING (EHB 2021), 9TH EDITION, 2021,
  • [46] Comparative protein analysis of the chitin metabolic pathway in extant organisms: A complex network approach
    Goes-Neto, Aristoteles
    Diniz, Marcelo V. C.
    Santos, Leonardo B. L.
    Pinho, Suani T. R.
    Miranda, Jose G. V.
    Lobao, Thierry Petit
    Borges, Ernesto P.
    El-Hani, Charbel Nino
    Andrade, Roberto F. S.
    BIOSYSTEMS, 2010, 101 (01) : 59 - 66
  • [47] The DOMON domain protein LmKnk contributes to correct chitin content, pore canal formation and lipid deposition in the cuticle of Locusta migratoria during moulting
    Yu, R. R.
    Zhang, R.
    Liu, W. M.
    Zhao, X. M.
    Zhu, K. Y.
    Moussian, B.
    Zhang, J. Z.
    INSECT MOLECULAR BIOLOGY, 2022, 31 (02) : 127 - 138
  • [48] Effective biodegradation of chlorophenols, sulfonamides, and their mixtures by bacterial laccase immobilized on chitin
    Chen, Jianhui
    Liu, Jiashu
    Chen, Bixin
    Yang, Fan
    Li, Bianxia
    Li, Huanan
    Jiang, Zhengbing
    Song, Huiting
    ECOTOXICOLOGY AND ENVIRONMENTAL SAFETY, 2023, 256
  • [49] Biodegradation of tetrachloroethene by chitin fermentation products in a continuous flow column system
    Brennan, Rachel A.
    Sanford, Robert A.
    Werth, Charles J.
    JOURNAL OF ENVIRONMENTAL ENGINEERING-ASCE, 2006, 132 (06): : 664 - 673
  • [50] Polylactic acid films reinforced with chitin nanocrystals: Biodegradation and migration behavior
    Yanat, Murat
    Muthurajan, Madhumitha
    Strubel, Maurice
    Grolle, Katja
    Schroen, Karin
    FOOD PACKAGING AND SHELF LIFE, 2023, 40