Literature DB >> 18478535

Reconstructing evolution: gene transfer from plastids to the nucleus.

Ralph Bock1, Jeremy N Timmis.   

Abstract

During evolution, the genomes of eukaryotic cells have undergone major restructuring to meet the new regulatory challenges associated with compartmentalization of the genetic material in the nucleus and the organelles acquired by endosymbiosis (mitochondria and plastids). Restructuring involved the loss of dispensable or redundant genes and the massive translocation of genes from the ancestral organelles to the nucleus. Genomics and bioinformatic data suggest that the process of DNA transfer from organelles to the nucleus still continues, providing raw material for evolutionary tinkering in the nuclear genome. Recent reconstruction of these events in the laboratory has provided a unique tool to observe genome evolution in real time and to study the molecular mechanisms by which plastid genes are converted into functional nuclear genes. Here, we summarize current knowledge about plastid-to-nuclear gene transfer in the context of genome evolution and discuss new insights gained from experiments that recapitulate endosymbiotic gene transfer in the laboratory.

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Year:  2008        PMID: 18478535     DOI: 10.1002/bies.20761

Source DB:  PubMed          Journal:  Bioessays        ISSN: 0265-9247            Impact factor:   4.345


  71 in total

1.  Nonessential plastid-encoded ribosomal proteins in tobacco: a developmental role for plastid translation and implications for reductive genome evolution.

Authors:  Tobias T Fleischmann; Lars B Scharff; Sibah Alkatib; Sebastian Hasdorf; Mark A Schöttler; Ralph Bock
Journal:  Plant Cell       Date:  2011-09-20       Impact factor: 11.277

2.  Conservation of plastid sequences in the plant nuclear genome for millions of years facilitates endosymbiotic evolution.

Authors:  Mathieu Rousseau-Gueutin; Michael A Ayliffe; Jeremy N Timmis
Journal:  Plant Physiol       Date:  2011-10-27       Impact factor: 8.340

3.  From endosymbiosis to synthetic photosynthetic life.

Authors:  Andreas P M Weber; Katherine W Osteryoung
Journal:  Plant Physiol       Date:  2010-10       Impact factor: 8.340

4.  Cell-to-cell movement of plastids in plants.

Authors:  Gregory Thyssen; Zora Svab; Pal Maliga
Journal:  Proc Natl Acad Sci U S A       Date:  2012-01-30       Impact factor: 11.205

Review 5.  Why chloroplasts and mitochondria retain their own genomes and genetic systems: Colocation for redox regulation of gene expression.

Authors:  John F Allen
Journal:  Proc Natl Acad Sci U S A       Date:  2015-05-18       Impact factor: 11.205

6.  Plastid Transformation in Tomato: A Vegetable Crop and Model Species.

Authors:  Stephanie Ruf; Ralph Bock
Journal:  Methods Mol Biol       Date:  2021

7.  Alternative oxidases (AOX1a and AOX2) can functionally substitute for plastid terminal oxidase in Arabidopsis chloroplasts.

Authors:  Aigen Fu; Huiying Liu; Fei Yu; Sekhar Kambakam; Sheng Luan; Steve Rodermel
Journal:  Plant Cell       Date:  2012-04-24       Impact factor: 11.277

8.  The functional transfer of genes from the mitochondria to the nucleus: the effects of selection, mutation, population size and rate of self-fertilization.

Authors:  Yaniv Brandvain; Michael J Wade
Journal:  Genetics       Date:  2009-05-17       Impact factor: 4.562

9.  Genome-wide analyses of Geraniaceae plastid DNA reveal unprecedented patterns of increased nucleotide substitutions.

Authors:  Mary M Guisinger; Jennifer V Kuehl; Jeffrey L Boore; Robert K Jansen
Journal:  Proc Natl Acad Sci U S A       Date:  2008-11-14       Impact factor: 11.205

10.  RBF1, a plant homolog of the bacterial ribosome-binding factor RbfA, acts in processing of the chloroplast 16S ribosomal RNA.

Authors:  Rikard Fristedt; Lars B Scharff; Cornelia A Clarke; Qin Wang; Chentao Lin; Sabeeha S Merchant; Ralph Bock
Journal:  Plant Physiol       Date:  2013-11-08       Impact factor: 8.340

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