Access the full text.
Sign up today, get DeepDyve free for 14 days.
D. Hayman (1956)
The Genetical Control of Incompatibility in Phalaris Coerulescens Desf.Australian Journal of Biological Sciences, 9
M. Cornish, M. Hayward, M. Lawrence (1979)
Self-incompatibility in ryegrassHeredity, 43
A Lundqvist (1954)
Studies on self-sterility in rye Secale cereale LHereditas, 40
C. Fearon, M. Cornish, M. Hayward, M. Lawrence (1994)
Self-incompatibility in ryegrass. X. Number and frequency of alleles in a natural population of Lolium perenne L.Heredity, 73
A. Gertz, G. Wricke (1989)
Linkage between the incompatibility locus Z and a β-glucosidase locus in ryePlant Breeding, 102
MA Cornish, MD Hayward, MJ Lawrence (1980)
Self-incompatibility in ryegrass. 1. The joint segregation of S and PGI-2 in L. perenne LHeredity, 43
Renata Rivera-Madrid, Dominique Mestres, Paulo Marinho, J. Jacquot, P. Decottignies, M. Miginiac‐Maslow, Yves Meyer (1995)
Evidence for five divergent thioredoxin h sequences in Arabidopsis thaliana.Proceedings of the National Academy of Sciences of the United States of America, 92 12
CH Fearon, MA Cornish, MD Hayward, MJ Lawrence (1983)
Selfincompatibility in ryegrass. V. Genetic control, linkage and seed set in diploid Lolium multiflorum LamHeredity, 73
J. Sambrook, E. Fritsch, T. Maniatis (2001)
Molecular Cloning: A Laboratory Manual
C. Leach, D. Hayman (1987)
The incompatibility loci as indicators of conserved linkage groups in the PoaceaeHeredity, 58
D Charlesworth (1994)
The key to specificityCurr Biol, 4
A Lundqvist (1965)
Self-incompatibility in Dactylis ashersoniana GraebnHereditas, 54
C. Brugidou, I. Marty, Y. Chartier, Y. Meyer (1993)
The Nicotiana tabacum genome encodes two cytoplasmic thioredoxin genes which are differently expressedMolecular and General Genetics MGG, 238
J. Nasrallah, M. Nasrallah (1993)
Pollen[mdash]Stigma Signaling in the Sporophytic Self-Incompatibility Response.The Plant cell, 5
D. Charlesworth (1994)
Plant Self-Incompatibility: The key to specificityCurrent Biology, 4
K. Dwyer, M. Kandasamy, D. Mahosky, J. Acciai, B. kudish, J. Miller, M. Nasrallah, J. Nasrallah (1994)
A superfamily of S locus-related sequences in Arabidopsis: diverse structures and expression patterns.The Plant cell, 6
Xinmin Li, J. Nield, David Hayman, Peter Langridge (1996)
A self-fertile mutant of Phalaris produces an S protein with reduced thioredoxin activity.The Plant journal : for cell and molecular biology, 10 3
EA Kellogg, CS Campbell (1987)
In Grass Systematics and Evolution
A Lundqvist (1962)
Self-incompatibility in diploid Hordeum bulbosum LHereditas, 48
A. McCubbin, T. Kao (1996)
Molecular mechanisms of self-incompatibilityCurrent Opinion in Biotechnology, 7
H. Eklund, F. Gleason, A. Holmgren (1991)
Structural and functional relations among thioredoxins of different speciesProteins: Structure, 11
Renata Rivera-Madrid, Paulo Marinho, Y. Chartier, Yves Meyer (1993)
Nucleotide Sequence of an Arabidopsis thaliana cDNA Clone Encoding a Homolog to a Suppressor of Wilms' Tumor, 102
B. Murray (1974)
Breeding systems and floral biology in the genus BrizaHeredity, 33
F. Franklin, M. Lawrence, V. Franklin-Tong (1995)
Cell and Molecular Biology of Self-Incompatibility in Flowering PlantsInternational Review of Cytology-a Survey of Cell Biology, 158
A Lundqvist (1955)
Genetics of incompatibility in Festuca pratensis HudsHereditas, 47
B. Lalonde, M. Nasrallah, K. Dwyer, C. Chen, B. Barlow, J. Nasrallah (1989)
A highly conserved Brassica gene with homology to the S-locus-specific glycoprotein structural gene.The Plant cell, 1
A Weimarck (1968)
Self-incompatibility in the GramineaeHereditas, 60
Y. Ishiwatari, C. Honda, I. Kawashima, Shin-ichi Nakamura, H. Hirano, S. Mori, T. Fujiwara, H. Hayashi, M. Chino (2004)
Thioredoxin h is one of the major proteins in rice phloem sapPlanta, 195
(1976)
Genetic control of isozyme phenotypes in L
Self Fertilisation (1877)
The Effects of Cross- and Self-Fertilisation in the Vegetable KingdomNature, 15
T. Sims (1993)
Genetic regulation of self‐incompatibilityCritical Reviews in Plant Sciences, 12
A Gertz, G Wricke (1989)
Linkage between the incompatibility locus Z and a _-glucosidase isozyme locus (B-Glu) in ryePlant Breed, 102
X. Li, J. Nield, D. Hayman, P. Langridge (1995)
Thioredoxin activity in the C terminus of Phalaris S protein.The Plant journal : for cell and molecular biology, 8 1
Xinmin Li, J. Nield, David Hayman, Peter Langridge (1994)
Cloning a putative self-incompatibility gene from the pollen of the grass Phalaris coerulescens.The Plant cell, 6
D. Ockendon (1982)
An S-allele survey of cabbage (Brassica oleracea var. Capitata)Euphytica, 31
P. Ebert, M. Anderson, R. Bernatzky, M. Altschuler, A. Clarke (1989)
Genetic polymorphism of self-incompatibility in flowering plantsCell, 56
MA Cornish, MD Hayward, MJ Lawrence (1979)
Self-incompatibility in ryegrass. 1. Genetic control in diploid L. perenne LHeredity, 43
F. Fuong, A. Voylokov, V. Smirnov (1993)
Genetic studies of self-fertility in rye (Secale cereale L.). 2. The search for isozyme marker genes linked to self-incompatibility lociTheoretical and Applied Genetics, 87
(1987)
Phylogenetic analysis of the Gramineae
Self-incompatibility is widespread in the grasses and it is proposed that the grasses share a common incompatibility mechanism that is distinct from those operating in the dicotyledonous species studied in great detail. Where good genetic data are available, all grass species appear to have an incompatibility mechanism controlled by two unlinked loci, S and Z. A putative S gene has been cloned from Phalaris coerulescens. This gene is characterized by two major domains: an allele specificity domain and a thioredoxin catalytic domain. A family of sequences with varying degrees of homology to this gene has been identified among 15 grass species covering all subfamilies of the Poaceae. These S-related sequences appear to be present in the grass family regardless of self-compatibility. Evidence is presented to show that at least one of the sequences is transcribed, suggesting a functional gene. In contrast to the high expression of the S gene in Phalaris pollen, expression of the related gene in the pollen (or anthers) of the grass species examined was so low that RNA gel blot analysis failed to display a significant signal. However, reverse transcription-based polymerase chain reaction (RT-PCR) successfully amplified the region corresponding to the S thioredoxin domain from 10 of the grass species. With grasses other than Phalaris, RT-PCR showed limited success in amplifying the region corresponding to the S variable portion at the 5′ end of the Phalaris S gene. Sequencing of the PCR-amplified S thioredoxin region from wheat, barley, rye and Dactylis revealed that this is a highly conserved gene with 94–97% sequence similarity with the corresponding Phalaris S gene. The conservation of sequence and ubiquitous expression of the gene across the grass family strongly suggest that the S-related gene is carrying out a significant biological function in the Poaceae. On the basis of these findings, a model for the evolution of the S self-incompatibility gene in the grasses is proposed.
Plant Molecular Biology – Springer Journals
Published: Sep 29, 2004
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.