Occurrence of Nuclear Inclusions in Plant Cells
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The occurrence of nuclear inclusions has been reported in various plant groups from primitive ferns to higher flowering plants. Their presence within a group seems to be randomly distributed without any phylogenetic relationships among species. According to the current survey, nuclear inclusions have been widely documented in more than several hundreds of species from various families of plants. The morphology and internal structures of nuclear inclusions are diverse and at least five types of inclusions develop within plant nuclei; amorphous, crystalline, fibrous, lamellar, and tubular form. Among these types, crystalline inclusions are the ones that are the most frequently reported. The inclusions are not bound by membranes and appear to be related to the nucleoli, either spatially by a close association or by an inverse relationship in size during development. The idea that nuclear inclusions are of a proteinaceous nature has been widely accepted. Further link to nucleolar activity as a protein storing site has also been suggested based on the association between the nucleolus and nuclear inclusions. Various investigations of nuclear inclusions have revealed more information about their structural features, but characterizing their precise function and subunit complexity employing molecular analysis and 3-D reconstruction remains to be elucidated. Tilting and tomography of serial sections with appropriate image processing can provide valuable information on their subunit(s). The present review summarizes discussion about different nuclear inclusions in plants from previous works, giving special attention to their fine, ultrastructural morphology, function, and origin.
Abstract
The occurrence of nuclear inclusions has been reported in various plant groups from primitive ferns to higher flowering plants. Their presence within a group seems to be randomly distributed without any phylogenetic relationships among species. According to the current survey, nuclear inclusions have been widely documented in more than several hundreds of species from various families of plants. The morphology and internal structures of nuclear inclusions are diverse and at least five types of inclusions develop within plant nuclei; amorphous, crystalline, fibrous, lamellar, and tubular form. Among these types, crystalline inclusions are the ones that are the most frequently reported. The inclusions are not bound by membranes and appear to be related to the nucleoli, either spatially by a close association or by an inverse relationship in size during development. The idea that nuclear inclusions are of a proteinaceous nature has been widely accepted. Further link to nucleolar activity as a protein storing site has also been suggested based on the association between the nucleolus and nuclear inclusions. Various investigations of nuclear inclusions have revealed more information about their structural features, but characterizing their precise function and subunit complexity employing molecular analysis and 3-D reconstruction remains to be elucidated. Tilting and tomography of serial sections with appropriate image processing can provide valuable information on their subunit(s). The present review summarizes discussion about different nuclear inclusions in plants from previous works, giving special attention to their fine, ultrastructural morphology, function, and origin.
참고문헌 (37)
- Bell PR, "Nuclear bodies in the maturing egg cell of a fern, Pteridium aquilinum", J Cell Sci, 60, pp.109~116 (1983)
- Benett MD, "Intranuclear fibrillar material in cereal pollen mother cells", Chromosoma, 71, pp.289~332 (1979)
- Boisvert FM, "The multifunctional nucleolus", Nat Rev Mol Cell Biol, 8, pp.574~585 (2007)
- Bosabalidis AM, "Ultrastructure, organization and cytochemistry of cytoplasmic crystalline inclusions in Organum dictamnus L. leaf chlorenchyma cells", J Cell Sci, 64, pp.231~244 (1983)
- Burgess J, "The structure and mitotic behaviour of a nuclear inclusion in a fern", Planta, 96, pp.238~247 (1971)
- Chernyshev DP, "Structure and possible nature of nuclear and cytoplasmic inclusions in plant cells", Tsitologiia, 34, pp.65~76 (2000)
- Ciampolini F, "Intranuclear crystalloids in leaves and styles of Linaria vulgaris Mill", J Ultrastruct Res, 71, pp.14~21 (1980)
- Codaccioni M, "Description d’inclusions intranucléaires dans les cellules des tiges fasciées des Forsythia sp", Protoplasma, 76, pp.283~287 (1973)
- Dudek A, "Tubuläre intranucleäre Einschluβkörper bei Linaria vulgaris L. Alpina (Scrophulariaceae) und Incarvillea variabilis (Bigoniaceae)", Pl Syst Evol, 135, pp.127~135 (1980)
- Eleftheriou EP, "A comparative study of the leaf anatomy of olive trees growing tin the city and the country", Environ Exp Bot, 27, pp.105~117 (1987)
- Eleftheriou EP, "Ultrastructural and cytochemical examination of the nuclear crystalloid inclusions of Olea europaea L. mesophyll cells", Trees, 2, pp.261~226 (1988)
- Gonzalez-Melendi P, "The nucleus: a highly organized but dynamic structure", J Microsc, 198, pp.199~207 (2000)
- Gunning BES, "Plant Cell Biology" (1995), Jones and Bartlett Publishers
- Kato N, "Structural analysis of living plant nuclei", Genet Engineer Principle Meth, 25, pp.65~90 (2003)
- In Sun Kim, "Changes in the Plastid Ultrastructure during Sedum rotundifolium Leaf Development", Journal of Plant Biology(한국식물학회지), 49(5), pp.376~7 (2006), 한국식물학회
- Kim I, "High voltage electron microscopy of structural patterns of plastid crystalline bodies in Sedum rotundifolium", Kor J Electron Microsc, 36, pp.73~82 (2006)
- 김인선, "A Survey of Plastid Crystals and Microtubules in Flowering Plants", 한국현미경학회지, 39(2), pp.73~80 (2009), 한국현미경학회
- Lamond AI, "Nuclear speckles: a model for nuclear organelles", Nat Rev Mol Cell Biol, 4, pp.605~612 (2003)
- Langerberg WG, "Fixation of plant virus inclusions under conditions designed for freeze-fracture", J Ultrastruct Res, 81, pp.184~188 (1982)
- Langerberg WG, "Immunocytology shows the presence of tobacco etch virus P3 protein in nuclear inclusions", J Struct Biol, 118, pp.243~247 (1997)
- Kyu Bae Lee, "Ultrastructure of Crystalline Inclusions in the Thylakoids of Dodder (Cuscuta japonica) Plastids", Journal of Plant Biology(한국식물학회지), 50(3), pp.325~14 (2007), 한국식물학회
- Olsen MOJ, "The nucleolus: An old factory with unexpected capabilities", Trends Cell Biol, 10, pp.186~196 (2000)
- Polito VS, "Quantitative nuclear cytology of English ivy (Hedera helix L.)", Pl Sci Letters, 34, pp.369~377 (1984)
- Raju CR, "A staining method for light microscopic study of nucleolar structure in plant cells", Stain Tech, 72, pp.55~60 (1982)
- Reunov AV, "Ultrastructure of parenchymal leaf cells of different soybean varieties systematically infected with soybean mosaic virus", Tsitologiia, 48, pp.208~215 (2006)
- Rose A, "The plant nuclear envelope", Planta, 218, pp.327~336 (2004)
- Schnepf E, "Die Feinstruktur der lamellären Einschluβkörper im Zellkern und im Cytoplasma der Drüsenhaare von Salvia glutinosa", Protoplasma, 73, pp.67~72 (1971)
- Silvestro SR, "A transmission electron microscope study of “New Dawn” climber rose (Rosa wichuraiana×safrano) exhibiting rose rosette disease", Plant Cell Rep, 23, pp.345~351 (2004)
- Septa F, "Weitere untersuchungen über proteinkörper in Zellkernen und ihre taxonomische Bedeutung", Pl Syst Evol, 132, pp.1~26 (1979)
- Thaler I, "Einschuβkristalle und Vacuolenkörper in den Zellen von Scutellaria altissima", Phyton, 25, pp.309~316 (1985)
- Thaler I, "Einschuβkörper in den Zellen von Scutellaria altissima", Phyton, 25, pp.309~316 (1985)
- Thaler I, "Zwei verschiedene Zellkerneinschlüsse in den Drüsenhaaren von Scutellaria altissima L", Phyton, 28, pp.249~259 (1988)
- Thomas D, "Ulttastructuraal and autoradiographic study of intranuclear inclusions of Pinguicula lusitanica L", Planta, 145, pp.89~93 (1979)
- Villiers TA, "Intranuclear crystals in plant embryo cells", Planta, 78, pp.11~16 (1968)
- Vintejoux C:, "Inclusions intranucléaires d’Utricularia neglecta L. (Lentibulariacées)", Ann Sci Nat Bot, 6, pp.203~205 (1984)
- Wergin WP, "Fine structural investigation of nuclear inclusions in plants", J Ultrastruct Res, 30, pp.533~557 (1970)
- Yu X, "Formation of nuclear bodies of Arabidopsis CRY2 in response to blue light is associated with its blue light-dependent degradation", Plant Cell, 21, pp.118~130 (2009)