Mapping of chromosome regions conferring boron toxicity tolerance in barley (Hordeum vulgare L.)

被引:73
作者
Jefferies, SP
Barr, AR
Karakousis, A
Kretschmer, JM
Manning, S
Chalmers, KJ
Nelson, JC
Islam, AKMR
Langridge, P
机构
[1] Univ Adelaide, Dept Plant Sci, Glen Osmond, SA 5064, Australia
[2] Univ Adelaide, Dept Plant Sci, CRC Mol Plant Breeding, Glen Osmond, SA 5064, Australia
[3] Univ Adelaide, ARC Special Res Ctr Basic & Appl Plant Mol Biol, Glen Osmond, SA 5064, Australia
关键词
boron toxicity; boron tolerance; RFLP mapping; barley;
D O I
10.1007/s001220051195
中图分类号
S3 [农学(农艺学)];
学科分类号
0901 ;
摘要
Boron toxicity has been recognised as an important problem limiting production in the low-rainfall regions of southern Australia, West Asia and North Africa. Genetic variation for boron toxicity tolerance in barley has been characterised but the mode of inheritance and the location of genes controlling tolerance were not previously known. A population of 150 doubled-haploid lines from a cross between a boron toxicity tolerant Algerian landrace, Sahara 3771, and the intolerant Australian cultivar Clipper was screened in four tolerance assays. An RFLP linkage map of the Clipper x Sahara population was used to identify chromosomal regions associated with boron tolerance in barley. Interval regression-mapping allowed the detection of four chromosomal regions involved in the boron tolerance traits measured. A region on chromosome 2H was associated with leaf-symptom expression, a region on chromosome 3H was associated with a reduction of the affect of boron toxicity on root growth suppression, a region on chromosome 6H was associated with reduced boron uptake, and a region on chromosome 4H was also associated with the control of boron uptake as well as being associated with root-length response, dry matter production and symptom expression. The benefits and potential of marker-assisted selection for boron toxicity tolerance are discussed.
引用
收藏
页码:1293 / 1303
页数:11
相关论文
共 28 条
[1]  
Cartwright B., 1987, Genetic aspects of plant mineral nutrition, 16-20 June, 1985, Madison, USA, P139
[2]   TOXIC CONCENTRATIONS OF BORON IN A RED-BROWN EARTH AT GLADSTONE, SOUTH-AUSTRALIA [J].
CARTWRIGHT, B ;
ZARCINAS, BA ;
MAYFIELD, AH .
AUSTRALIAN JOURNAL OF SOIL RESEARCH, 1984, 22 (03) :261-272
[3]   Screening for boron tolerance in wheat (T-aestivum) by solution culture in filter paper [J].
Chantachume, Y ;
Smith, D ;
Hollamby, GJ ;
Paull, JG ;
Rathjen, AJ .
PLANT AND SOIL, 1995, 177 (02) :249-254
[4]   STRUCTURAL EVOLUTION OF WHEAT CHROMOSOMES 4A, 5A, AND 7B AND ITS IMPACT ON RECOMBINATION [J].
DEVOS, KM ;
DUBCOVSKY, J ;
DVORAK, J ;
CHINOY, CN ;
GALE, MD .
THEORETICAL AND APPLIED GENETICS, 1995, 91 (02) :282-288
[5]   BORON TOXICITY AND DEFICIENCY - A REVIEW [J].
GUPTA, UC ;
JAME, YW ;
CAMPBELL, CA ;
LEYSHON, AJ ;
NICHOLAICHUK, W .
CANADIAN JOURNAL OF SOIL SCIENCE, 1985, 65 (03) :381-409
[6]   A SIMPLE REGRESSION METHOD FOR MAPPING QUANTITATIVE TRAIT LOCI IN LINE CROSSES USING FLANKING MARKERS [J].
HALEY, CS ;
KNOTT, SA .
HEREDITY, 1992, 69 :315-324
[7]   RESISTANCE OF WHEAT GENOTYPES TO BORON TOXICITY IS EXPRESSED AT THE CELLULAR-LEVEL [J].
HUANG, CY ;
GRAHAM, RD .
PLANT AND SOIL, 1990, 126 (02) :295-300
[8]  
*ICARDA ANN REP, 1993, BREED WINT BARL HIGH
[9]   PRODUCTION OF DISOMIC WHEAT-BARLEY CHROMOSOME ADDITION LINES USING HORDEUM-BULBOSUM CROSSES [J].
ISLAM, AKMR ;
SHEPHERD, KW .
GENETICAL RESEARCH, 1981, 37 (02) :215-219
[10]  
JEFFERIES SP, 1997, P 8 AUST BARL TECHN, P5