Literature DB >> 24178207

Intracellular redistribution of phytochrome in etiolated soybean (Glycine max L.) seedlings.

M Cope1, L H Pratt.   

Abstract

The intracellular distribution of phytochrome in hypocotyl hooks of etiolated soybean (Glycine max L.) has been examined by immunofluorescence using a newly produced monoclonal antibody (Soy-1) directed to phytochrome purified from etiolated soybean shoots. Cortical cells in the hook region exhibit the strongest phytochrome-associated fluorescence, which is diffusely distributed throughout the cytosol in unirradiated, etiolated seedlings. A redistribution of immunocytochemically detectable hytochrome to discrete areas (sequestering) following irradiation with red light requires a few minutes at room temperature in soybean, whereas this redistribution is reversed rapidly following irradiation with far-red light. In contrast, sequestering in oat (Avena sativa L.) occurs within a few seconds (D. McCurdy and L. Pratt, 1986, Planta 167, 330-336) while its reversal by far-red light requires hours (J. M. Mackenzie Jr. et al., 1975, Proc. Natl. Acad. Sci. USA 72, 799-803). The time courses, however, of red-light-enhanced phytochrome pelletability and sequestering are similar for soybean as they are for oat. Thus, while these observations made with a dicotyledon are consistent with the previous conclusion derived from work with oat, namely that sequestering and enhanced pelletability are different manifestations of the same intracellular event, they are inconsistent with the hypothesis that either is a primary step in the mode of action of phytochrome.

Entities:  

Year:  1992        PMID: 24178207     DOI: 10.1007/BF00198947

Source DB:  PubMed          Journal:  Planta        ISSN: 0032-0935            Impact factor:   4.116


  15 in total

1.  Irradiation-enhanced Phytochrome Pelletability: Requirement for Phosphorylative Energy in Vivo.

Authors:  P H Quail; W R Briggs
Journal:  Plant Physiol       Date:  1978-11       Impact factor: 8.340

2.  Production and purification of monoclonal antibodies to Pisum and Avena phytochrome.

Authors:  M M Cordonnier; C Smith; H Greppin; L H Pratt
Journal:  Planta       Date:  1983-08       Impact factor: 4.116

3.  Immunochemical detection with rabbit polyclonal and mouse monoclonal antibodies of different pools of phytochrome from etiolated and green Avena shoots.

Authors:  Y Shimazaki; L H Pratt
Journal:  Planta       Date:  1985-06       Impact factor: 4.116

4.  Intracellular localisation of phytochrome in oat coleoptiles by electron microscopy.

Authors:  V Speth; V Otto; E Schäfer
Journal:  Planta       Date:  1986-09       Impact factor: 4.116

5.  Fusion protein-based epitope mapping of phytochrome. Precise identification of an evolutionarily conserved domain.

Authors:  L K Thompson; L H Pratt; M M Cordonnier; S Kadwell; J L Darlix; L Crossland
Journal:  J Biol Chem       Date:  1989-07-25       Impact factor: 5.157

6.  Electron microscopic localization of phytochrome in plants using an indirect antibody-labeling method.

Authors:  R A Coleman; L H Pratt
Journal:  J Histochem Cytochem       Date:  1974-11       Impact factor: 2.479

7.  Reversible redistribution of phytochrome within the cell upon conversion to its physiologically active form.

Authors:  J M Mackenzie; R A Coleman; W R Briggs; L H Pratt
Journal:  Proc Natl Acad Sci U S A       Date:  1975-03       Impact factor: 11.205

8.  A simple method of reducing the fading of immunofluorescence during microscopy.

Authors:  G D Johnson; G M Nogueira Araujo
Journal:  J Immunol Methods       Date:  1981       Impact factor: 2.303

9.  Red Light-enhanced Phytochrome Pelletability: Re-examination and Further Characterization.

Authors:  L H Pratt; D Marmé
Journal:  Plant Physiol       Date:  1976-11       Impact factor: 8.340

10.  Immunogold electron microscopy of phytochrome in Avena: identification of intracellular sites responsible for phytochrome sequestering and enhanced pelletability.

Authors:  D W McCurdy; L H Pratt
Journal:  J Cell Biol       Date:  1986-12       Impact factor: 10.539

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  5 in total

1.  Light-induced nuclear translocation of endogenous pea phytochrome A visualized by immunocytochemical procedures.

Authors:  A Hisada; H Hanzawa; J L Weller; A Nagatani; J B Reid; M Furuya
Journal:  Plant Cell       Date:  2000-07       Impact factor: 11.277

2.  Spatial distribution of three phytochromes in dark- and light-grown Avena sativa L.

Authors:  Y C Wang; M M Cordonnier-Pratt; L H Pratt
Journal:  Planta       Date:  1993-03       Impact factor: 4.116

3.  A set of GFP-based organelle marker lines combined with DsRed-based gateway vectors for subcellular localization study in rice (Oryza sativa L.).

Authors:  Tsung-Meng Wu; Ke-Chun Lin; Wei-Shiang Liau; Yun-Yang Chao; Ling-Hung Yang; Szu-Yun Chen; Chung-An Lu; Chwan-Yang Hong
Journal:  Plant Mol Biol       Date:  2015-10-30       Impact factor: 4.076

4.  In vivo suppression of phytochrome aggregation by the GroE chaperonins in Escherichia coli.

Authors:  M D Edgerton; M O Santos; A M Jones
Journal:  Plant Mol Biol       Date:  1993-03       Impact factor: 4.076

5.  Map-based cloning of the gene associated with the soybean maturity locus E3.

Authors:  Satoshi Watanabe; Rumiko Hideshima; Zhengjun Xia; Yasutaka Tsubokura; Shusei Sato; Yumi Nakamoto; Naoki Yamanaka; Ryoji Takahashi; Masao Ishimoto; Toyoaki Anai; Satoshi Tabata; Kyuya Harada
Journal:  Genetics       Date:  2009-05-27       Impact factor: 4.562

  5 in total

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