Molecular breeding and functional genomics for tolerance to biotic stress

被引:0
|
作者
Fujimori, M [1 ]
Hayashi, K [1 ]
Hirata, M [1 ]
Ikeda, S [1 ]
Takahashi, Y [1 ]
Mano, Y [1 ]
Sato, H [1 ]
Takamizo, T [1 ]
Mizuno, K [1 ]
Fujiwara, T [1 ]
Sugita, S [1 ]
机构
[1] Natl Inst Livestock & Grassland Sci, Nishinasuno, Tochigi 3292793, Japan
关键词
resistance to biotic stress; crown rust; ryegrass; resistance gene; DNA markers; gene isolation;
D O I
暂无
中图分类号
Q81 [生物工程学(生物技术)]; Q93 [微生物学];
学科分类号
071005 ; 0836 ; 090102 ; 100705 ;
摘要
Resistance to biotic stress is one of the most important targets in the improvement of forage and turf grass. Resistance to crown rust in Italian ryegrass is an attractive target of molecular analysis, including linkage analysis and gene isolation, because of its importance in forage and turf grasses. To analyze the major resistance gene in the resistant line 'Yamaiku 130', we performed bulked segregant analysis using amplified fragment-length polymorphism (AFLP) in an F1 population segregated at a 1:1 ratio of resistant to susceptible. We constructed a linkage map of regions flanking the resistance gene locus, designated as Pc1. Three AFLP markers were tightly linked to Pc1 with a map distance of 0.9 cM, and 3 AFLP markers were on the opposite side with a distance of 1.8 cM. ATC-CATG153 co-segregated with Pc1. We performed linkage analysis using DNA markers tightly linked to Pc1 in an F1 population derived from the Italian ryegrass cv. 'Harukaze'. Another resistance gene, designated as Pc2, was identified. Gene isolation of Pc1, using a map-based technique, and the identification of other resistance genes are in progress. Identification of both the DNA markers tightly linked to resistance genes and the plant materials carrying the resistance gene will open new strategies for the development of resistance varieties in Italian ryegrass and related species.
引用
收藏
页码:21 / 35
页数:15
相关论文
共 50 条
  • [31] Advanced Breeding for Biotic Stress Resistance in Poplar
    Biselli, Chiara
    Vietto, Lorenzo
    Rosso, Laura
    Cattivelli, Luigi
    Nervo, Giuseppe
    Fricano, Agostino
    PLANTS-BASEL, 2022, 11 (15):
  • [32] Breeding for biotic stress resistance in Rhododendron simsii
    Van Huylenbroeck, J.
    Calsyn, E.
    De Keyser, E.
    Luypaert, G.
    XXIX INTERNATIONAL HORTICULTURAL CONGRESS ON HORTICULTURE: SUSTAINING LIVES, LIVELIHOODS AND LANDSCAPES (IHC2014): INTERNATIONAL SYMPOSIUM ON ORNAMENTAL HORTICULTURE IN THE GLOBAL GREENHOUSE, 2015, 1104 : 375 - 379
  • [33] Molecular Genetics and Genomics and Kiwifruit Breeding
    McNeilage, M. A.
    Fraser, L. G.
    Tsang, G. K.
    Datson, P. M.
    De Silva, H. N.
    Crowhurst, R. N.
    Ferguson, A. R.
    VII INTERNATIONAL SYMPOSIUM ON KIWIFRUIT, 2011, (913): : 63 - 70
  • [34] Marker Assisted Forward Breeding to Combine Multiple Biotic-Abiotic Stress Resistance/Tolerance in Rice
    Shilpi Dixit
    Uma Maheshwar Singh
    Arun Kumar Singh
    Shamshad Alam
    Challa Venkateshwarlu
    Vishnu Varthini Nachimuthu
    Shailesh Yadav
    Ragavendran Abbai
    Ramchander Selvaraj
    M. Nagamallika Devi
    Perumalla Janaki Ramayya
    Jyothi Badri
    T. Ram
    Jhansi Lakshmi
    G. Lakshmidevi
    Jai Vidhya LRK
    Ayyagari Phani Padmakumari
    G. S. Laha
    M. S. Prasad
    Malathi Seetalam
    Vikas Kumar Singh
    Arvind Kumar
    Rice, 2020, 13
  • [35] The Genome Regions Associated with Abiotic and Biotic Stress Tolerance, as Well as Other Important Breeding Traits in Triticale
    Golebiowska-Paluch, Gabriela
    Dyda, Mateusz
    PLANTS-BASEL, 2023, 12 (03):
  • [36] Marker Assisted Forward Breeding to Combine Multiple Biotic-Abiotic Stress Resistance/Tolerance in Rice
    Dixit, Shilpi
    Singh, Uma Maheshwar
    Singh, Arun Kumar
    Alam, Shamshad
    Venkateshwarlu, Challa
    Nachimuthu, Vishnu Varthini
    Yadav, Shailesh
    Abbai, Ragavendran
    Selvaraj, Ramchander
    Devi, M. Nagamallika
    Ramayya, Perumalla Janaki
    Badri, Jyothi
    Ram, T.
    Lakshmi, Jhansi
    Lakshmidevi, G.
    Lrk, Jai Vidhya
    Padmakumari, Ayyagari Phani
    Laha, G. S.
    Prasad, M. S.
    Seetalam, Malathi
    Singh, Vikas Kumar
    Kumar, Arvind
    RICE, 2020, 13 (01)
  • [37] Functional genomics screens to identify genes involved in tolerance of tumour microenvironment stress
    Lee, T. W.
    Yong, H.
    Bhatta, S.
    Singleton, D.
    Lipert, B.
    Tsai, P.
    Bohlander, S.
    Print, C.
    Hunter, F.
    Wilson, W.
    Jamieson, S.
    EUROPEAN JOURNAL OF CANCER, 2020, 138 : S30 - S30
  • [38] Genomics-assisted breeding for drought tolerance in chickpea
    Thudi, Mahendar
    Gaur, Pooran M.
    Krishnamurthy, Lakshmanan
    Mir, Reyazul R.
    Kudapa, Himabindu
    Fikre, Asnake
    Kimurto, Paul
    Tripathi, Shailesh
    Soren, Khela R.
    Mulwa, Richard
    Bharadwaj, Chellapilla
    Datta, Subhojit
    Chaturvedi, Sushil K.
    Varshney, Rajeev K.
    FUNCTIONAL PLANT BIOLOGY, 2014, 41 (10-11) : 1178 - 1190
  • [39] MAIZE BREEDING FOR STRESS TOLERANCE
    MCCARTER, SB
    PROCEEDINGS OF THE THIRD CONFERENCE OF THE INTERNATIONAL PLANT BIOTECHNOLOGY NETWORK ( IPBNET ): THE ROLE OF TISSUE CULTURE AND NOVEL GENETIC TECHNOLOGIES IN CROP IMPROVEMENT, 1989, : 11 - 17
  • [40] A brief summary of major advances in cotton functional genomics and molecular breeding studies in China
    QIN YongMei1 & ZHU YuXian1
    2 National Center for Plant Gene Research (Beijing)
    Science Bulletin, 2007, (23) : 3174 - 3178