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Adv. Carbohydr. Chem. Biochem
George Witman, K. Carlson, J. Berliner, Joel Rosenbaum (1972)
CHLAMYDOMONAS FLAGELLAThe Journal of Cell Biology, 54
K. Holden, N. Yim, L. Griggs, J. Weisbach (1971)
Gel electrophoresis of mucous glycoproteins. I. Effect of gel porosity.Biochemistry, 10 16
C. Hofmann, G. Bouck (1976)
Immunological and structural evidence for patterned intussusceptive surface growth in a unicellular organism. A postulated role for submembranous proteins and microtubulesThe Journal of Cell Biology, 69
C. Araki (1969)
Chemistry and enzymology of marine algal polysaccharidesCarbohydrate Research, 11
V. Marchesi, E. Andrews (1971)
Glycoproteins: Isolation from Cell Membranes with Lithium DiiodosalicylateScience, 174
P. Albersheim, W. Bauer, Kenneth Keestra, K. Talmadge (1973)
THE STRUCTURE OF THE WALL OF SUSPENSION-CULTURED SYCAMORE CELLS*
Organization and Composition of Euglena
E. Piccinni (1975)
ATPase activity in flagella from Euglena gracilis. Localization of the enzyme and effects of detergents.The Journal of protozoology, 22 3
T. Jahn (1946)
The Euglenoid FlagellatesThe Quarterly Review of Biology, 21
(1966)
Structure et ultrastructure de quelques eugl~mononadines
(1972)
Compl6ments a l'6tude des mastigo-n6mes des protistes flagell6s utilisation de la technique de Thi6ry pour la mise en evidence des polysaccharides sur coupes fines
J. Rosenbaum, F. Child (1967)
FLAGELLAR REGENERATION IN PROTOZOAN FLAGELLATESThe Journal of Cell Biology, 34
G. Bouck (1971)
THE STRUCTURE, ORIGIN, ISOLATION, AND COMPOSITION OF THE TUBULAR MASTIGONEMES OF THE OCHROMONAS FLAGELLUMThe Journal of Cell Biology, 50
K. Daisley (1970)
The occurrence and nature of Euglena gracilis proteins that bind vitamin B12International Journal of Biochemistry, 1
H. Mollenhauer, W. Evans, C. Kogut (1968)
DICTYOSOME STRUCTURE IN EUGLENA GRACILISThe Journal of Cell Biology, 37
O. Westphal, O. Lüderitz, F. Bister (1952)
Über die Extraktion von Bakterien mit Phenol/WasserZeitschrift für Naturforschung B, 7
A. Peacock, C. Dingman (1968)
Molecular weight estimation and separation of ribonucleic acid by electrophoresis in agarose-acrylamide composite gels.Biochemistry, 7 2
S. Singer (1974)
Molecular biology of cellular membranes with applications to immunology.Advances in immunology, 19 0
K. Weber, J. Pringle, M. Osborn (1972)
Measurement of molecular weights by electrophoresis on SDS-acrylamide gel.Methods in enzymology, 26
(1976)
Thin-layer chromatography of carbohydrate
J. Cell Biol
T. Timell (1964)
Wood Hemicelluloses: Part IAdvances in carbohydrate chemistry, 19
T. Jahn, Michael Lanoman, J. Fonseca (1964)
The Mechanism of Locomotion of Flagellates. II. Function of the Mastigonemes of OchromonasJournal of Eukaryotic Microbiology, 11
John Yu, Donald Fischman, Theodore Steck (1973)
Selective solubilization of proteins and phospholipids from red blood cell membranes by nonionic detergents.Journal of supramolecular structure, 1 3
F. Renaud, A. Rowe, I. Gibbons (1968)
SOME PROPERTIES OF THE PROTEIN FORMING THE OUTER FIBERS OF CILIAThe Journal of Cell Biology, 36
R. Stephens (1977)
Major membrane protein differences in cilia and flagella: evidence for a membrane-associated tubulin.Biochemistry, 16 10
S. Rosenberg, G. Guidotti (1968)
The protein of human erythrocyte membranes. I. Preparation, solubilization, and partial characterization.The Journal of biological chemistry, 243 8
(1972)
Architecture and assembly of mastigonemes
J. Protozol
L. Chen, M. Pousada, T. Haines (1976)
The flagellar membrane of Ochromonas danica. Lipid composition.The Journal of biological chemistry, 251 6
L. Chen, T. Haines (1976)
The flagellar membrane of Ochromonas danica. Isolation and electrophoretic analysis of the flagellar membrane, axonemes, and mastigonemes.The Journal of biological chemistry, 251 6
S. Partridge (1949)
Aniline Hydrogen Phthalate as a Spraying Reagent for Chromatography of SugarsNature, 164
D. Markey, G. Bouck (1977)
Mastigoneme attachment in Ochromonas.Journal of ultrastructure research, 59 2
J. Brewer, A. Pesce, R. Ashworth (1974)
Experimental techniques in biochemistry
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Polysaccharides of tropical pasture herbage
W. Trevelyan, D. Procter, J. Harrison (1950)
Detection of Sugars on Paper ChromatogramsNature, 166
(1977)
Organization of the cell membrane in Euglena. Protoplasma
G. Borisy, J. Olmsted (1972)
Nucleated Assembly of Microtubules in Porcine Brain ExtractsScience, 177
H. Marques (1951)
[Determination of the blood sugar].Revista de quimica e farmacia, 16 11
M. Somogyi (1945)
Determination of blood sugar.Journal of Biological Chemistry, 160
P. Zahler, V. Niggli (1977)
The Use of Organic Solvents in Membrane Research
R. Dekker, G. Richards (1976)
Hemicellulases: their occurrence, purification, properties, and mode of action.Advances in carbohydrate chemistry and biochemistry, 32
A. Gottschalk (1972)
Glycoproteins: Their composition, structure and function
The surface of the Euglena flagellum is coated with about 30,000 fine filaments of two distinct types. The longer of these nontubular mastigonemes (about 3 micron) appear to be attached to the paraflagellar rod whereas the shorter nontubular mastigonemes (about 1.5 micron) are the centrifugally arranged portions of a larger complex, which consists of an attached unit parallel to and outside of the flagellar membrane. Units are arranged laternally in near registration and longitudinally overlap by one-half of a unit length. Rows of mastigoneme units are firmly attached to the axoneme microtubules or to the paraflagellar rod as evidenced by their persistence after removal of the flagellar membrane with neutral detergents. SDS-acrylamide gels of whole flagella revealed about 30 polypeptides, of which two gave strong positive staining with the periodic acid-Schiff (PAS) procedure. At least one of these two bands (glycoproteins) has been equated with the surface mastigonemes by parallel analysis of isolated and purified mastigonemes, particularly after phenol extraction. The faster moving glycoprotein has been selectively removed from whole flagella and from the mastigoneme fraction with low concentrations of neutral detergents at neutral or high pH. The larger glycoprotein was found to be polydisperse when electrophoresed through 1% agarose/SDS gels. Thin-layer chromatography of hydrolysates of whole flagella or of isolated mastigonemes has indicated that the major carbohydrate moiety is the pentose sugar, xylose, with possibly a small amount of glucose and an unknown minor component.
The Journal of Cell Biology – Rockefeller University Press
Published: Jun 1, 1978
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