Construction of a consensus linkage map for red clover (Trifolium pratense L.)

被引:55
|
作者
Isobe, Sachiko [1 ]
Koelliker, Roland [5 ]
Hisano, Hiroshi [1 ,2 ]
Sasamoto, Shigemi [1 ]
Wada, Tshyuko [1 ]
Klimenko, Irina [4 ]
Okumura, Kenji [3 ]
Tabata, Satoshi [1 ]
机构
[1] Kazusa DNA Res Inst, Chiba 2920818, Japan
[2] Samuel Roberts Noble Fdn Inc, Ardmore, OK 73401 USA
[3] Natl Agr Res Inst Hokkaido Reg, Sapporo, Hokkaido 0628555, Japan
[4] All Russian Williams Fodder Crop Res Inst, Lugovaya 141055, Moscow Region, Russia
[5] Agroscope Reckenholz Tanikon Res Stn ART, CH-8046 Zurich, Switzerland
来源
BMC PLANT BIOLOGY | 2009年 / 9卷
关键词
VITIS-VINIFERA L; HIGH-DENSITY; QTL ANALYSIS; SSR; BARLEY; INFERENCE; MARKERS; MAIZE; RFLP; LOCI;
D O I
10.1186/1471-2229-9-57
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
Background: Red clover (Trifolium pratense L.) is a major forage legume that has a strong self-incompatibility system and exhibits high genetic diversity within populations. For several crop species, integrated consensus linkage maps that combine information from multiple mapping populations have been developed. For red clover, three genetic linkage maps have been published, but the information in these existing maps has not been integrated. Results: A consensus linkage map was constructed using six mapping populations originating from eight parental accessions. Three of the six mapping populations were established for this study. The integrated red clover map was composed of 1804 loci, including 1414 microsatellite loci, 181 amplified fragment length polymorphism (AFLP) loci and 204 restriction fragment length polymorphism (RFLP) loci, in seven linkage groups. The average distance between loci and the total length of the consensus map were 0.46 cM and 836.6 cM, respectively. The locus order on the consensus map correlated highly with that of accession-specific maps. Segregation distortion was observed across linkage groups. We investigated genome-wide allele frequency in 1144 red clover individuals using 462 microsatellite loci randomly chosen from the consensus map. The average number of alleles and polymorphism information content (PIC) were 9.17 and 0.69, respectively. Conclusion: A consensus genetic linkage map for red clover was constructed for the first time based on six mapping populations. The locus order on the consensus map was highly conserved among linkage maps and was sufficiently reliable for use as a reference for genetic analysis of random red clover germplasms.
引用
收藏
页数:11
相关论文
共 50 条
  • [21] The concentration of isoflavones in red clover (Trifolium pratense L.) at flowering stage
    Lemeziene, Nijole
    Padarauskas, Audrius
    Butkute, Bronislava
    Ceseviciene, Jurgita
    Taujenis, Lukas
    Norkeviciene, Egle
    Mikaliuniene, Jovita
    ZEMDIRBYSTE-AGRICULTURE, 2015, 102 (04) : 443 - 448
  • [22] A proteome analysis of freezing tolerance in red clover (Trifolium pratense L.)
    Bertrand, Annick
    Bipfubusa, Marie
    Castonguay, Yves
    Rocher, Solen
    Szopinska-Morawska, Aleksandra
    Papadopoulos, Yousef
    Renaut, Jenny
    BMC PLANT BIOLOGY, 2016, 16
  • [23] Selection for resistance to powdery mildew in red clover (Trifolium pratense L.)
    Malengier, M
    Van Bockstaele, E
    50TH INTERNATIONAL SYMPOSIUM ON CROP PROTECTION, PTS I-IV, 1998, 50 : 925 - 926
  • [24] Boron application in red clover (Trifolium pratense L.) seed production
    Tomic, Dalibor
    Stevovic, Vladeta
    Durovic, Dragan
    Madic, Milomirka
    Bokan, Nikola
    Stanisavljevic, Rade
    IRISH JOURNAL OF AGRICULTURAL AND FOOD RESEARCH, 2015, 54 (01) : 59 - 63
  • [25] 'Grasslands G27' red clover (Trifolium pratense L.)
    Rumball, W
    Keogh, RG
    Miller, JE
    Claydon, RB
    NEW ZEALAND JOURNAL OF AGRICULTURAL RESEARCH, 1997, 40 (03) : 369 - 372
  • [26] ASSESSMENT OF RED CLOVER (TRIFOLIUM PRATENSE L.) PRODUCTIVITY IN ENVIRONMENTAL STRESS
    Tucak, M.
    Popovic, S.
    Cupic, T.
    Krizmanic, G.
    Spanic, V
    Meglic, V
    Radovic, J.
    POLJOPRIVREDA, 2016, 22 (02): : 3 - 9
  • [27] Path analysis for seed production in red clover (Trifolium pratense L.)
    Montardo, DP
    Dall'Agnol, M
    Crusius, AF
    Paim, NR
    REVISTA BRASILEIRA DE ZOOTECNIA-BRAZILIAN JOURNAL OF ANIMAL SCIENCE, 2003, 32 (05): : 1076 - 1082
  • [28] Red Clover (Trifolium pratense L.) Sprout Prevents Metabolic Syndrome
    Yokoyama, Shin-ichiro
    Kodera, Miyuki
    Hirai, Akiko
    Nakada, Mitsuhiko
    Ueno, Yuki
    Osawa, Toshihiko
    JOURNAL OF NUTRITIONAL SCIENCE AND VITAMINOLOGY, 2020, 66 (01) : 48 - 53
  • [29] Comprehensive structural analysis of the genome of red clover (Trifolium pratense L.)
    Tabata, S
    Sato, S
    Asamizu, E
    Kataoka, R
    Ohmido, N
    Sakurai, N
    Kaneko, T
    Nakamura, Y
    Klimenko, I
    Okumura, K
    Isobe, S
    PLANT AND CELL PHYSIOLOGY, 2006, 47 : S243 - S243
  • [30] Phenotypic characterization of drought responses in red clover (Trifolium pratense L.)
    Vleugels, Tim
    Saleem, Aamir
    Dubey, Reena
    Muylle, Hilde
    Borra-Serrano, Irene
    Lootens, Peter
    De Swaef, Tom
    Roldan-Ruiz, Isabel
    FRONTIERS IN PLANT SCIENCE, 2024, 14