Abstract
To understand the biochemical and cytological basis of cell polarity is to gain insight into the process of differentiation. When organisms differentiate, modifications of morphological and functional characteristics occur at certain loci. These loci are specified relative to an axis of polarity. Polar organization of multicellular organisms directs the specialization of previously undifferentiated cells at distinct sites. It is a prerequisite for development of a specialized organism. Without a polar organization there can be no differentiation.
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Preview
Unable to display preview. Download preview PDF.
References
Bentrup, F.W., 1977, Electrical events during apex regeneration in Acetabularia mediterranea, in: “Progress in Acetabularia Research”, C.L.F. Woodcock, ed., Academic Press, New York, pp. 249–254.
Berger, S., and Schweiger, H.G., 1975, The ultrastructure of the nucleocytoplasmic interface in Acetabularia, in: Molecular Biology of Nucleocytoplasmic Relationships,” S. Puiseux-Dao, ed., Elsevier, Amsterdam, pp. 243–250.
Berger, S., and Schweiger, H.G., 1986, Perinuclear dense bodies: Characterization as DNA-containing structures using enzyme-linked gold granules, J.Cell Sci., 80: 1–11.
Bouloukhère, M., 1972, Différenciation spatiale et temporelle des chloroplastes d’Acetabularia mediterranea, J.Microsc, 13: 401–416.
Bonotto, S., and Sironval, C., 1977, Experimental studies on the phototropism of Acetabularia mediterranea and Acetabularia crenulata, in: “Progress in Acetabularia Research,” C.L.F. Woodcock, ed., Academic Press, New York, pp. 241–247.
Christ-Adler, M., and Bentrup, F.W., 1976, Effect of K+ and Cl- ion gradients upon apex regeneration in Acetabularia mediterranea, Planta, 129: 91–93.
D’Emilio, M.A., Hoursiangou-Neubrun, D., Baugnet-Mahieu, L. Gilles, J., Nuyts, G., Bossus, A., Mazza, A., and Bonotto, S., 1979, Apicobasal gradient of protein synthesis in Acetabularia, in: “Developmental Biology of Acetabularia,” S. Bonotto, V. Kefeli and S. Puiseux-Dao, eds, Elsevier, North Holland, Amsterdam, pp. 269–282.
Franke, W.W., Berger, S., Falk, H., Spring, H., Scheer, U., Herth, W., Trendelenburg, M.F., and Schweiger, H.G., 1974, Morphology of the nucleo-cytoplasmic interactions during the development of Acetabularia cells. I. The vegetative phase, Protoplasma, 82: 24 9–282.
Franke, W.W., Spring, H., Kartenbeck, J., and Falk, H., 1977, Cyst formation in some Dasycladacean green algae. I. Vesicle formations during coenocytotomy in Acetabularia mediterranea, Eur. J. Cell Biol., 14: 229–259.
Goldfarb, V., Sanders, D., and Gradmann, D., 1984, Reversal of electrogenic Cl- pump in Acetabularia increases level and 32p labelling of ATP, J. Exptl. Bot., 35: 645–658.
Goodwin, B.C., and Pateromichelakis, S., 1979, The role of electrical fields, ions, and the cortex in the morphogenesis of Acetabularia, Planta, 145: 427–435.
Goodwin, B.C., Skelton, J.L., and Kirk-Bell, S.M., 1983, Control of regeneration and morphogenesis by divalent cations in Acetabularia mediterranea, Planta, 157: 1–7.
Goodwin, B.C., and Trainor, L.E.H., 1985, Tip and whorl morphogenesis in Acetabularia by calcium-regulated strain fields, J.Theor.Biol., 117: 79–106.
Hämmerling, J., 1934, Über formbildende Substanzen bei Acetabularia mediterranea, ihre räumliche und zeitliche Verteilung und ihre Herkunft, Arch. Entwicklungsmech. der Organismen, 131: 1–81.
Hämmerling, J., 1936, Studien zum Polaritätsproblem, Zool. Jahrb., 56: 441–483.
Hämmerling, J., 1955, Neuere Versuche über die Polarität und Differenzierung bei Acetabularia, Biol.Zbl., 74: 545–554.
Hämmerling, J., and Hämmerling, C, 1959, Über Bildung und Ausgleich des Polaritätsgefälles bei Acetabularia, Planta, 53: 522–531.
Harrison, L.G., Snell, J., Verdi, R., Vogt, D.E., Zeiss, G.D., and Green, B.R., 1981, Hair morphogenesis in Acetabularia mediterranea: Temperature-dependent spacing and models of morphogen waves, Protoplasma, 106: 211–221.
Harrison, L.G., and Hillier, N.A., 1985, Quantitative control of Acetabularia morphogenesis by extracellular calcium: A test of kinetic theory, J.Theor.Biol., 114: 177–192.
Harrison, L.G., Graham, K.T., and Lakowski, B.C., 1988, Calcium localization during Acetabularia whorl formation: Evidence supporting a two-stage hierarchical mechanism, Development, 104: 255–262.
Issinger, 0., Mass, J., and Claus, H., 1971, Photosyntheseaktivität der Stielregionen von Acetabularia mediterranea, Planta, 101: 360–364.
Kloppstech, K., and Schweiger, H.G., 1975a, Polyadenylated RNA from Acetabularia, Differentiation, 4: 115–123.
Kloppstech, K., and Schweiger, H.G., 1975b, 80s robosomes in Acetabularia major. Distribution and transportation within the cell, Protoplasma, 83: 27–40.
Koop, H., and Kiermayer, D., 1980a, Protoplasmic streaming in the giant unicellular green alga Acetabularia mediterranea. I. Formation of intracellular transport systems in the course of cell differentiation, Protoplasma, 102: 147–166.
Koop, H., and Kiermayer, D., 1980b, Protoplasmic streaming in the giant unicellular green alga Acetabularia mediterranea. II. Differential sensitivity of movement systems to substances acting on microfilaments and microtubuli, Protoplasma, 102: 295–306.
Koop, H.U., 1981, Protoplasmic streaming in Acetabularia, Protoplasma, 109: 143–157.
Lüttke, A., 1981, Heterogeneity of chloroplasts in Acetabularia
mediterranea. Heterogeneous distribution and morphology of chloroplast DNA, Exptl.Cell Res., 131:483–488.
Lüttke, A., 1983, Polarity of Acetabularia mediterranea: Stability in the enucleate state, Annals of Botany, 52: 905–913.
Menzel, D., 1986, Visualization of cytoskeletal changes through the life cycle of Acetabularia, Protoplasma, 134: 30–42.
Menzel, D., and Elsner-Menzel, C, 1989a, Maintenance and dynamic changes of cytoplasmic organization controlled by cytoskeletal assemblies in Acetabularia (Chlorophyceae), in: “Algae as Experimental Systems,” A.W. Coleman, L.J. Goff, and J.R. Stein-Taylor, eds, Alan R. Liss inc., New York, pp. 71–91.
Menzel, D., and Elsner-Menzel, C, 1989b, Cytoskeletal rearrangements during maturation of Acetabularia cysts: The lid-forming apparatus, Eur. J. Cell Biol., 48 (Suppl.26): 75.
Nagai, R., and Fukui, S., 1981, Differential treatment of Acetabularia with cytochalasin B and N-ethylmaleimide with special reference to their effects on cytoplasmic streaming, Protoplasma, 109: 7 9–89.
Neuhaus-Url, G., and Schweiger, H.G., 1984, The lid forming apparatus in cysts of the green alga Acetabularia mediterranea, Protoplasma, 122: 120–124.
Novak, B., and Bentrup, F.W., 1972, An electrophysiological study of regeneration in Acetabularia mediterranea, Planta, 108: 227–244.
Novak, B., and Sironval, C, 1975, Inhibition of regeneration of Acetabularia mediterranea enucleated posterior stalk segments by electrical isolation, Plant Sci.Letters, 5: 183–188.
Shihira-Ishikawa, I., 1984, Chromosome behavior in the primary nucleus of Acetabularia calyculus as revealed by epifluorescent microscopy, Protoplasma, 122: 27–34.
Werz, G., 1974, Fine-structural aspects of morphogenesis in Acetabularia, Int. Rev. Cytology, 38: 319–367.
Author information
Authors and Affiliations
Editor information
Editors and Affiliations
Rights and permissions
Copyright information
© 1990 Springer Science+Business Media New York
About this chapter
Cite this chapter
Berger, S., Dillard, W.L. (1990). Acetabularia: A Giant Unicellular Organism for Studying Polarity. In: Marthy, HJ. (eds) Experimental Embryology in Aquatic Plants and Animals. NATO ASI Series, vol 195. Springer, Boston, MA. https://doi.org/10.1007/978-1-4615-3830-1_2
Download citation
DOI: https://doi.org/10.1007/978-1-4615-3830-1_2
Publisher Name: Springer, Boston, MA
Print ISBN: 978-1-4613-6709-3
Online ISBN: 978-1-4615-3830-1
eBook Packages: Springer Book Archive