Literature DB >> 12297657

Heat Shock Gene Expression Is Controlled Primarily at the Translational Level in Carrot Cells and Somatic Embryos.

N. R. Apuya1, J. L. Zimmerman.   

Abstract

We have determined that the synthesis of heat shock proteins is regulated ultimately at the translational level in heat-shocked carrot callus cells and somatic embryos. Polysome analysis revealed that heat-shocked callus cells do not translate most heat shock transcripts, which they abundantly synthesize and accumulate. By contrast, heat-shocked globular embryos accumulate low levels of heat shock mRNA but selectively translate more of the heat shock mRNA molecules compared to callus cells and embryos of later stages. The overall result of these different translational control schemes is that undifferentiated callus cells and globular embryos synthesize comparable levels of heat shock proteins even though they have large differences in heat shock transcript levels.

Entities:  

Year:  1992        PMID: 12297657      PMCID: PMC160162          DOI: 10.1105/tpc.4.6.657

Source DB:  PubMed          Journal:  Plant Cell        ISSN: 1040-4651            Impact factor:   11.277


  25 in total

1.  Heat shock and other stress response systems of plants.

Authors:  D Neumann; L Nover; B Parthier; R Rieger; K D Scharf; R Wollgiehn; U zur Nieden
Journal:  Results Probl Cell Differ       Date:  1989

2.  Cloning and characterization of a carrot hsp70 gene.

Authors:  X Y Lin; M S Chern; J L Zimmerman
Journal:  Plant Mol Biol       Date:  1991-12       Impact factor: 4.076

3.  Novel regulation of heat shock genes during carrot somatic embryo development.

Authors:  J L Zimmerman; N Apuya; K Darwish; C O'Carroll
Journal:  Plant Cell       Date:  1989-12       Impact factor: 11.277

4.  Low repetitive DNA content in Aspergillus nidulans.

Authors:  W E Timberlake
Journal:  Science       Date:  1978-12-01       Impact factor: 47.728

5.  "A technique for radiolabeling DNA restriction endonuclease fragments to high specific activity". Addendum.

Authors:  A P Feinberg; B Vogelstein
Journal:  Anal Biochem       Date:  1984-02       Impact factor: 3.365

6.  A Drosophila RNA polymerase II transcription factor binds to the regulatory site of an hsp 70 gene.

Authors:  C S Parker; J Topol
Journal:  Cell       Date:  1984-05       Impact factor: 41.582

7.  Regulation of protein synthesis during heat shock.

Authors:  S Lindquist
Journal:  Nature       Date:  1981-09-24       Impact factor: 49.962

8.  The preferential translation of Drosophila hsp70 mRNA requires sequences in the untranslated leader.

Authors:  T J McGarry; S Lindquist
Journal:  Cell       Date:  1985-10       Impact factor: 41.582

9.  Yeast heat shock factor is an essential DNA-binding protein that exhibits temperature-dependent phosphorylation.

Authors:  P K Sorger; H R Pelham
Journal:  Cell       Date:  1988-09-09       Impact factor: 41.582

10.  Hsp26 is not required for growth at high temperatures, nor for thermotolerance, spore development, or germination.

Authors:  L Petko; S Lindquist
Journal:  Cell       Date:  1986-06-20       Impact factor: 41.582

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  17 in total

1.  RNA-binding protein-mediated translational repression of transgene expression in plants.

Authors:  R Eric Cerny; Youlin Qi; Carrie M Aydt; Shihshieh Huang; Jennifer J Listello; Brandon J Fabbri; Timothy W Conner; Lyle Crossland; Jintai Huang
Journal:  Plant Mol Biol       Date:  2003-05       Impact factor: 4.076

2.  Somatic Embryogenesis: A Model for Early Development in Higher Plants.

Authors:  J. L. Zimmerman
Journal:  Plant Cell       Date:  1993-10       Impact factor: 11.277

3.  Messenger RNA-binding properties of nonpolysomal ribonucleoproteins from heat-stressed tomato cells

Authors: 
Journal:  Plant Physiol       Date:  1999-05       Impact factor: 8.340

4.  Isolation and characterization of a diverse set of genes from carrot somatic embryos.

Authors:  X Lin; G J Hwang; J L Zimmerman
Journal:  Plant Physiol       Date:  1996-11       Impact factor: 8.340

5.  Small heat shock proteins are differentially regulated during pollen development and following heat stress in tobacco.

Authors:  Roman A Volkov; Irina I Panchuk; Fritz Schöffl
Journal:  Plant Mol Biol       Date:  2005-03       Impact factor: 4.076

6.  Expression of small heat-shock proteins at low temperatures. A possible role in protecting against chilling injuries.

Authors:  A Sabehat; S Lurie; D Weiss
Journal:  Plant Physiol       Date:  1998-06       Impact factor: 8.340

7.  Heat Shock Disrupts Cap and Poly(A) Tail Function during Translation and Increases mRNA Stability of Introduced Reporter mRNA.

Authors:  D. R. Gallie; C. Caldwell; L. Pitto
Journal:  Plant Physiol       Date:  1995-08       Impact factor: 8.340

8.  RNase Activity Decreases following a Heat Shock in Wheat Leaves and Correlates with Its Posttranslational Modification.

Authors:  S. C. Chang; D. R. Gallie
Journal:  Plant Physiol       Date:  1997-04       Impact factor: 8.340

9.  Recovery from Heat Shock in Heat-Tolerant and Nontolerant Variants of Creeping Bentgrass.

Authors:  S. Y. Park; K. C. Chang; R. Shivaji; D. S. Luthe
Journal:  Plant Physiol       Date:  1997-09       Impact factor: 8.340

10.  Cold-Induced Accumulation of hsp90 Transcripts in Brassica napus.

Authors:  P. Krishna; M. Sacco; J. F. Cherutti; S. Hill
Journal:  Plant Physiol       Date:  1995-03       Impact factor: 8.340

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