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Ekaterina Badaeva, E. Budashkina, N. Badaev, N. Kalinina, F. Shkutina (1991)
General features of chromosome substitutions in Triticum aestivum x T. timopheevii hybridsTheoretical and Applied Genetics, 82
(1979)
Kul’turnaya flora SSSR (Cultivated
Z.A. Yakobashvili (1989)
Cand. Sci. (Biol.) Dissertation
V. Jaaska (1980)
Electrophoretic survey of seedling esterases in wheats in relation to their phylogenyTheoretical and Applied Genetics, 56
H. Kihara, F. Lilienfeld (1934)
Genomanalyse bei Triticum und Aegilops :V. Triticum Timopheevi ZhukCytologia, 6
(1988)
Role of a Soft Wheat Variety in Introgression of Alien Genetic Material in Its Genome and the Stabilization Rate of a Hybrid Form
D.V. Zaykin, A.I. Pudovkin (1990)
Two Programs to Estimate Significance of Chi-Square Values Using Pseudo-Probability TestsJ. Hered., 84
E. Mains, H. Jackson
Physiologic specialisation in the leaf rust of Wheat, Puccinia triticina Erikas.Phytopathology, 16
H. Kihara (1963)
Nucleus and chromosome substitution in wheat and Aegilops,2.
R. Mcintosh, Y. Yamazaki, K. Devos, J. Dubcovsky, W. Rogers, R. Appels, N. Pogna, M. Romanò, E. Pogna, G. Galterio, D. Liu, N. Pogna, Italy, P. Sharp, J. Snape, E. Suárez, Argentina, G. Tommaso, Scarascia Mugnozza, A. Bianchi, A. Blanco, G. Boggini, E. Porceddu, L. Rossi, F. Salamini, M. Gorla, P. Zeuli, P. Tusa (1998)
Catalogue of gene symbols for wheat, 4
B. Friebe, Jiming Jiang, W. Raupp, R. McIntosh, B. Gill (2004)
Characterization of wheat-alien translocations conferring resistance to diseases and pests: current statusEuphytica, 91
K.A. Flyaksberger (1935)
Grains: Wheat, in Kul'turnaya flora SSSR (Cultivated Flora of the Soviet Union)
L. Sachs (1953)
Chromosome behaviour in species hybrids with Triticum timopheeviHeredity, 7
E. Badaeva, L. Sozinova, N. Badaev, O. Muravenko, A. Zelenin (1990)
'Chromosomal passport' of Triticum aestivum L. em Thell cv. Chinese Spring and standardization of chromosomal analysis of cereals.Cereal Research Communications, 18
J. Dvorak, Hong-Bin Zhang, R. Kota, M. Lassner (1989)
Organization and evolution of the 5S ribosomal RNA gene family in wheat and related speciesGenome, 32
(1954)
Inheritance of Resistance to Stem Rust and Powdery Mildew in Cytologically Stable Spring Wheats Derived from Triticum timopheevii
Y. Ogihara, K. Tsunewaki (1982)
Molecular basis of the genetic diversity of the cytoplasm in Triticum and Aegilops. I. Diversity of the chloroplast genome and its lineage revealed by the restriction pattern of ct-DNAsThe Japanese Journal of Genetics, 57
V. Konarev (1983)
Plant proteins as genetic markers.
(1971)
Triticum timopheevii as a Source of Resistance to Wheat
(1935)
Grains: Wheat, in Kul’turnaya flora
E. Badaeva, B. Gill (1995)
Spontaneous chromosome substitutions in hybrids of Triticum aestivum with T. araraticum detected by C-banding technique
B. Maestra, T. Naranjo (1999)
Structural chromosome differentiation between Triticum timopheevii and T. turgidum and T. aestivumTheoretical and Applied Genetics, 98
P. Dyck (1992)
Transfer of a gene for stem rust resistance from Triticum araraticum to hexaploid wheatGenome, 35
K. Tsunewaki (1996)
Plasma analysis as the counterpart of genome analysis
(1993)
Origin of Polyploid Wheats Revealed by RFLP Analysis, in Molecular Genetic Basis of Polyploid Evolution in Plants
V.E. Yaaska (1976)
Alcohol Dehydrogenase of Polyploid and Related Diploid Wheat Species: To the Phylogeny of Tetraploid WheatGenetika, 12
H. Tsujimoto (1995)
Gametocidal genes in wheat and its relatives. IV. Functional relationships between six gametocidal genes.Genome, 38 2
Chunji Liu, M. Atkinson, C. Chinoy, K. Devos, M. Gale (2004)
Nonhomoeologous translocations between group 4, 5 and 7 chromosomes within wheat and ryeTheoretical and Applied Genetics, 83
X. Shang, R. Jackson, H. Nguyen (1988)
Heterochromatin diversity and chromosome morphology in wheats analyzed by the HKG banding techniqueGenome, 30
E. Wagenaar (1961)
STUDIES ON THE GENOME CONSTITUTION OF TRITICUM TIMOPHEEVI ZHUK. I. EVIDENCE FOR GENETIC CONTROL OF MEIOTIC IRREGULARITIES IN TETRAPLOID HYBRIDSCanadian journal of genetics and cytology, 3
Kamshilov Mm (1970)
Organization and evolutionZhurnal Obshchei Biologii, 31
Y. Nakai (1979)
ISOZYME VARIATIONS IN AEGILOPS AND TRITICUM, IV. THE ORIGIN OF THE COMMON WHEATS REVEALED FROM THE STUDY ON ESTERASE ISOZYMES IN SYNTHESIZED HEXAPLOID WHEATSThe Japanese Journal of Genetics, 54
R. Peterson, A. Campbell, A. Hannah (1948)
A DIAGRAMMATIC SCALE FOR ESTIMATING RUST INTENSITY ON LEAVES AND STEMS OF CEREALSCanadian journal of research, 26
T. Naranjo, A. Roca, P. Goicoechea, R. Giraldez (1987)
Arm homoeology of wheat and rye chromosomesGenome, 29
V.E. Yaaska (1974)
The Origin of Tetraploid Wheat Inferred from the Electrophoretic Analysis of EnzymesIzv. Akad. Nauk Est. SSR, 23
A. Popov (1976)
A new wheat species
Y. Mukai, Y. Nakahara, M. Yamamoto (1993)
Simultaneous discrimination of the three genomes in hexaploid wheat by multicolor fluorescence in situ hybridization using total genomic and highly repeated DNA probes.Genome, 36 3
R.A. McIntosh, J. Gyarfas (1971)
Triticum timopheevii as a Source of Resistance to Wheat Stem RustZ. Pflanzenzucht, 66
E. Badaeva, F. Shkutina, I. Bogdevich, N. Badaev (1986)
Comparative study ofTriticum aestivum andT. timopheevi genomes using C-banding techniquePlant Systematics and Evolution, 154
Jiming Jiang, B. Gill (2005)
Different species-specific chromosome translocations inTriticum timopheevii andT. turgidum support the diphyletic origin of polyploid wheatsChromosome Research, 2
R.A. McIntosh, G.E. Hart, K.M. Devos (1998)
Proc. 9th Int. Wheat Genet. Symp. (Canada, August 2–7, 1998)
M. Feldman (1966)
IDENTIFICATION OF UNPAIRED CHROMOSOMES IN F1 HYBRIDS INVOLVING TRITICUM AESTIVUM AND T. TIMOPHEEV IICanadian journal of genetics and cytology, 8
K. Järve, H. Peusha, J. Tsymbalova, S. Tamm, K. Devos, T. Enno (2000)
Chromosomal location of a Triticum timopheevii--derived powdery mildew resistance gene transferred to common wheat.Genome, 43 2
Bikram Gill, P. CHENt
Role of cytoplasm-specific introgression in the evolution of the polyploid wheats
M. Yamamori (1994)
An N-band marker for gene Lr18 for resistance to leaf rust in wheatTheoretical and Applied Genetics, 89
K. Tsunewaki, Y. Ogihara (1983)
The Molecular Basis of Genetic Diversity among Cytoplasms of TRITICUM and AEGILOPS Species. II. on the Origin of Polyploid Wheat Cytoplasms as Suggested by Chloroplast DNA Restriction Fragment Patterns.Genetics, 104 1
(1989)
Establishment of the Phylogenetic Relations among Wheat Species by Means of Analyzing the Polymorphism and Inheritance of Storage Proteins, Cand
G. Brwon-Guedira, B. Gill, T. Cox, S. Leath (1997)
Transfer of disease resistance genes from Triticum araraticum to common wheatPlant Breeding, 116
K. Tsunewaki (1996)
Methods in Genome Analysis in Plants: Their Merits and Piffals
G. Brown-Guedira, E. Badaeva, B. Gill, T. Cox (1996)
Chromosome substitutions of Triticum timopheevii in common wheat and some observations on the evolution of polyploid wheat speciesTheoretical and Applied Genetics, 93
D. Zaykin, A. Pudovkin (1993)
Two Programs to Estimate Significance of χ2 Values Using Pseudo-Probability TestsJournal of Heredity, 84
J. Hutchinson, T. Miller, J. Jahier, K. Shepherd (1982)
Comparison of the chromosomes of Triticum timopheevi with related wheats using the techniques of C-banding and in situ hybridizationTheoretical and Applied Genetics, 64
V.F. Dorofeev, A.A. Filatenko, E.F. Migushova (1979)
Pshenitsa
B. Giorgi, A. Bozzini (1969)
Karyotype Analysis in Triticum: IV — Analysis of (Aegilops Speltoides × Triticum Boeoticum) Amphiploid and a Hypothesis on the Evolution of Tetraploid WheatsCaryologia, 22
(1983)
The Origin of Chromosome 4A, and Genomes B and G of Tetraploid Wheats
E.D. Badaeva, A.A. Filatenko, N.S. Badaev (1994)
Cytogenetic Investigation of Triticum timopheevii (Zhuk.) Zhuk. and Related Species Using C-BandingTheor. Appl. Genet., 89
(1998)
Genome Analysis in the Triticum–Aegilops Alliance
Ekaterina Badaeva, A. Filatenko, N. Badaev (1994)
Cytogenetic investigation of Triticum timopheevii (Zhuk.) Zhuk. and related species using the C-banding techniqueTheoretical and Applied Genetics, 89
S. Takumi, S. Nasuda, Yaoguang Liu, K. Tsunewaki (1993)
Wheat phytogeny determined by RFLP analysis of nuclear DNA. 1. Einkorn wheatThe Japanese Journal of Genetics, 68
R. McIntosh, C. Wellings, R. Park (1995)
Wheat Rusts: An Atlas of Resistance Genes
V. Jaaska (1978)
NADP-dependent aromatic alcohol dehydrogenase in polyploid wheats and their diploid relatives. On the origin and phylogeny of polyploid wheatsTheoretical and Applied Genetics, 53
W. Nyquist (1962)
Differential Fertilization in the Inheritance of Stem Rust Resistance in Hybrids Involving a Common Wheat Strain Derived from Triticum Timopheevi.Genetics, 47 8
G. Kimber, R. Athwal (1972)
A reassessment of the course of evolution of wheat.Proceedings of the National Academy of Sciences of the United States of America, 69 4
V.G. Konarev (1983)
Belki rastenii kak geneticheskie markery
H. Kihara (1963)
Nucleus and Chromosome Substitution in Wheat and Aegilops: 2. Chromosome SubstitutionSeiken Ziho, 15
(1971)
To the Genome Nature of Wheat of the T. timopheevii Zhuk. Species Group as Inferred from Electrophoretic and Immunochemical Data, Dokl
(1976)
On the Nature and Origin of the Wheat Genomes as Inferred from Biochemical and Immunochemical Data on Grain Proteins
K. Tsunewaki, S. Takumi, N. Mori (1993)
Molecular Genetic Basis of Polyploid Evolution in Plants
The karyotypes of 47 hybrid lines obtained from crosses of common wheat Triticum aestivum L. (cv. Rodina and line 353) with Triticum timopheevii(Zhuk.) Zhuk. (A t A t GG) and related species T. militinae Zhuk. et Migusch. (A t A t GG) and T. kiharae Dorof. et Migusch. (A t A t GGD sq D sq) were analyzed by C-banding. Most lines were resistant to yellow rust and powdery mildew. The introgression of alien genetic material to the common wheat genome was realized via substitutions of complete A +-,G-, and D-genome chromosomes, chromosome arms, or their fragments. The pattern of chromosome substitutions in resistant lines differed from that in introgressive hybrids selected for other traits. Substitutions of chromosomes 6G, 2At, 2G, and 5G were revealed in 31, 23, 18, and 13 lines, respectively. Substitutions of chromosomes 4G, 4At, and 6At were not observed. In 15 lines, a 5BS.5BL-5GL translocation was identified. High frequency of substitutions of chromosomes 2At, 2G, 5G, and 6G indicate that they may carry the resistance genes and that they are closely related to the respective homoeologous chromosomes of common wheat that determines their high compensation ability.
Russian Journal of Genetics – Springer Journals
Published: Oct 8, 2004
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