| Revista Peruana de Biología
Vol. 6 Nº 1 1999 |
|
CHARACTERIZATION OF SOME
TECHNIQUES OF
IMMUNOFLUORESCENCE AND FLUORESCENCE IN CHILEAN MUSSELS Perumytilus purpuratus AND
Semimytilus algosus
REFERENCES
Barak L. S.; R.R. Yocum and W. W Webb, 1981. In vivo staining of cytoskeletal actin by
autointernalization of nontoxic concentration of nitrobenzoxadiazole Phallacidin. J. Cell.
Biol. 89:24-32.
Bestor, T. and G. Schatten. 1981: Antitubulin Immunofluorescence Microscopy of
Microtubules presents during the Pronuclear Movements of Sea Urch;n Fertilization.
Develop. Biol. 88:80-91.
Cline, C. A. and G. Schatten. 1986. Microfilament during sea urchin fertilization:
Fluorescence detection with Rodaminyl Phalloidin. Gam. Res. 14:277-291.
Epel, D. 1980. Ionic triggers in the fertilization of sea urchin eggs. Ann. N. Y. Acad.
Sci. 339: 74-85.
Guraya, S. S. 1982. Recent advances in the structure, origin, composition and function of
cortical granules in animal eggs. Intern. Rev. Cytol. 78:257-360.
Humphreys, W. J. 1962. Electron microscope studies on eggs of Mylitus edulis. J.
Ultrastruct. Res. 7:467-487.
Humphreys, W. J. 1967. The fine structure of cortical granules in eggs and gastrulae of
Mytilus edulis. J. Ultrastruct. Res. 17:314-326.
Longo, F. J. and E. Anderson. 1970. An ultrastructural analysis of fertilization in the
surf clam Spisula solidissima. 1. Polar body formation and development of the femaie
pronucleus. J. Ultrastruct. Res. 33:495-514.
Loosanoff, V. L. and H.C. Davis. 1951. Dela ell spawning of lamellibranches by IoN
temperature. J. Mar. Res. 10: 197-202.1
Miller, M. R.; JJ. Castellot and A. B. Pardue. 1978. '1 permeable animal cell preparation
for studyin~ macromolecular synthesis. Biochem. 17:1073-1080.
Pérez, C.; M. Roco; A. Castro; E. Dupre; G. Schatten and C. Barros. 1991. Localization of
Microfilaments and a Tubulin-Like Protein it Crustacean (Rhynchocinetes typus)
Spermatozoon. Molec. Reprod. Develop. 28: 373-379.
Raven, C.P. 1970. The cortical and subcorticall cytoplasir of the Lymnaea egg, Int. Rev.
Cytol. 28:1-44.
Sawada, T. and G. Schatten. 1988. Microtubules in Ascidean Eggs during Meiosis,
Fertilization, and Mitosis. 1988. Cell Motil. 9:219-230.
Schatten, G. 1982. Motility during fertilization. Int. Rej Cytol. 79:59-163.
Schatten, G.; H. Schatten; 1. Spector; C. Cline; N. Paweletz; C. Simerly and C. Petzelt.
1986. LatruncLlin inhibits the Microfilaments-mediated Process during fertilization,
cleavege and early development in Sea Urchin and Mice. Exp. Cell. Research 166:191-208.
Schatten, H.; G. Schatten; D. Mazia; R. Balczon and C. Simerly. 1986. Behavior of
centrosomes during fetilization and cell division in mouse oocyte and in sea urchin eggs.
Proc. Nat,. Acad. Sci. USA. 83:105-109.
Schatten, G.; C. Simmerly and H. Schatten. 1985. Microtubule configurations during
fertilization, mitosis and early development in the mouse and the requirement for egg
microtubule-mediated motility during mammalian fertilization. Proc. Nat. Acad. Sci. USA.
82:4152-4156.
Shroeder, T 1981. Interrelations between the cell surface and the cytoskeleton in cleaving
sea urchin eggs. In: Poste, G. and Nicolson, G. L. eds.. Cytoskeletal Elements and Plasma
Membrane Organization. Elsevier/North Holland. Pp. 170-216.
Schuel, H. 1978. Secretory functions of eggs cortical granules in fertilization and
development. A critical review. Gam. Res. 1: 299-382.
Thombes, R.; C. Simerly; G. Borisy and G. Schatten. 1992. Meiosis, egg activation and
nuclear envelope breakdown are differentially reliant on Ca+, whereas germinal vesicle
breakdown is Ca+ independent in the mouse oocyte. J. Cell. Biol. 117:799-811.
Vacquier, V D. 1975. The isolation of Intact cortical granules from Sea Urchin Eggs:
Calcium Ions Trigger Granules Discharge. Dev. Biol. 43:62-74.
Regresar al
Artículo
|