TRP channels in C. elegans

被引:75
|
作者
Kahn-Kirby, AH [1 ]
Bargmann, CI
机构
[1] Univ Calif San Francisco, Dept Physiol, San Francisco, CA 94143 USA
[2] Rockefeller Univ, New York, NY 10021 USA
关键词
sensory transduction; cation channels; Mg2+ homeostasis; cilia; store-operated channel;
D O I
10.1146/annurev.physiol.68.040204.100715
中图分类号
Q4 [生理学];
学科分类号
071003 ;
摘要
The TRP (transient receptor potential) superfamily of cation channels is present in all eukaryotes, from yeast to mammals. Many TRP channels have been Studied in the nematode Caenorhabditis elegans, revealing novel biological functions, regulatory modes, and mechanisms of localization. C. elegans TRPV channels function in olfaction. mechanosensation, osmosensation, and activity-dependent gene regulation. Their activity is regulated by G protein signaling and Polyunsaturated fatty acids. C. elegans TRPPs related to human polycystic kidney disease genes are expressed in male-specific neurons. The KLP-6 kinesin directs TRPP channels to cilia, where they may interact with F0/F1 ATPases. A sperm-specific TRPC channel, TRP-3, is required for fertilization. Upon sperm activation, TRP-3 translocates from an intracellular compartment to the plasma membrane to allow store-operated Ca2+ entry. The TRPM channels GON-2 and GTL-2 regulate Mg2+ horneostasis and Mg2+ uptake by intestinal cells; GON-2 is also required for gonad development. The TRPML CUP-5 promotes normal lysosome biogenesis and prevents apoptosis. Dynamic, precise expression of TRP proteins generates a remarkable range of cellular functions.
引用
收藏
页码:719 / 736
页数:18
相关论文
共 50 条
  • [31] Putative catecholamine receptors in C. elegans regulate inwardly rectifying potassium channels
    Bigras, E
    Sanyal, S
    Hébert, TE
    Van Tol, HH
    FASEB JOURNAL, 2001, 15 (05): : A898 - A898
  • [32] A C-elegans model of nicotline-dependent behavior:: Regulation by TRP-family channels
    Feng, Zhaoyang
    Li, Wei
    Ward, Alex
    Piggott, Beverly J.
    Larkspur, Erin R.
    Sternberg, Paul W.
    Xu, X. Z. Shawn
    CELL, 2006, 127 (03) : 621 - 633
  • [33] Hyperoxic responses in C. elegans
    Payvar, F
    DeMatteo, A
    Hazinski, TA
    PEDIATRIC RESEARCH, 2000, 47 (04) : 480A - 480A
  • [34] C. elegans: A Practical Approach
    Louise Michaelson
    Heredity, 2000, 85 (1) : 99 - 99
  • [35] Centriole assembly in C. elegans
    Pelletier, L
    O'Toole, ET
    Schwager, A
    Hyman, AA
    Müller-Reichert, T
    EUROPEAN JOURNAL OF CELL BIOLOGY, 2006, 85 : 122 - 123
  • [36] Cancer Research with C. elegans
    不详
    ATLA-ALTERNATIVES TO LABORATORY ANIMALS, 2012, 40 (04): : 193 - 193
  • [37] RNA Processing in C. elegans
    Morton, J. Jason
    Blumenthal, Thomas
    CAENORHABDITIS ELEGANS: MOLECULAR GENETICS AND DEVELOPMENT, SECOND EDITION, 2011, 106 : 187 - 217
  • [38] More neuropeptides in C. elegans
    Tavernarakis N.
    Genome Biology, 3 (2)
  • [39] Expansion microscopy of C. elegans
    Yu, Chih-Chieh
    Barry, Nicholas C.
    Wassie, Asmamaw T.
    Sinha, Anubhav
    Bhattacharya, Abhishek
    Asano, Shoh
    Zhang, Chi
    Chen, Fei
    Hobert, Oliver
    Goodman, Miriam B.
    Haspel, Gal
    Boyden, Edward S.
    ELIFE, 2020, 9 : 1 - 78
  • [40] C. elegans — an innate choice?
    Jane Alfred
    Nature Reviews Genetics, 2002, 3 : 651 - 651