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Relationships between carbon isotope discrimination and grain yield in winter wheat under well-watered and drought conditions

Published online by Cambridge University Press:  11 November 2010

B. N. ARAVINDA KUMAR ,
S. N. AZAM-ALI ,
J. W. SNAPE ,
R. M. WEIGHTMAN  and
M. J. FOULKES
B. N. ARAVINDA KUMAR
Affiliation:
Division of Plant and Crop Sciences, University of Nottingham, Sutton Bonington Campus, Leicestershire LE12 5RD, UK
S. N. AZAM-ALI
Affiliation:
University of Nottingham, Malaysia Campus, Jalan Broga, 43500 Semenyih, Selangor Darul Ehsan, Malaysia
J. W. SNAPE
Affiliation:
Crop Genetics Department, John Innes Centre, Colney Lane, Norwich NR4 7UH, UK
R. M. WEIGHTMAN
Affiliation:
ADAS Centre for Sustainable Crop Management, Battlegate Road, Boxworth, Cambridgeshire CB23 4NN, UK
M. J. FOULKES*
Affiliation:
Division of Plant and Crop Sciences, University of Nottingham, Sutton Bonington Campus, Leicestershire LE12 5RD, UK
*
*To whom all correspondence should be addressed. Email: [email protected]
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Summary

The association of carbon isotope discrimination of grain (Δ13C) with yield performance under rain-fed and well-watered conditions was analysed using a doubled-haploid (DH) winter wheat population, derived from the cross between cvars Beaver×Soissons, within field experiments at two site-seasons. The aim of this work was to quantify associations between Δ13C and yield responses to drought and to test effects of major genes (the semi-dwarf genes, Rht-B1b, Rht-D1b, an awn suppressor gene, B1 and the 1BL.1RS wheat–rye chromosome translocation) segregating in the population for associations with Δ13C and drought performance. Carbon isotope discrimination, through its negative relationship with transpiration efficiency, may be used as a surrogate for this trait. Grain Δ13C was positively associated with grain yield under both irrigated and unirrigated conditions in each site-season and, overall, explained 0·34 of the phenotypic variation in grain yield amongst DH lines under drought and 0·14 under well-watered conditions. There was a positive association between specific leaf lamina N content (SLN) at anthesis and Δ13C under drought amongst DH lines in one site-season, suggesting higher SLN may confer increased stomatal conductance via higher photosynthetic capacity, hence increased grain Δ13C. Overall the Rht-D1b (semi-dwarf) lines had slightly higher Δ13C of grain (20·0‰) than the Rht-B1a/Rht-D1a (tall) group of lines (19·8‰). There were no significant differences between the Rht-B1b (semi-dwarf) or the Rht-B1b/Rht-D1b (dwarf) lines and the tall lines. Comparing their performance under irrigated and unirrigated conditions, the Rht groups of lines (Rht-B1b semi-dwarf, Rht-D1b semidwarf and dwarf and tall groups) responded no differently to drought for Δ13C. The Rht-D1b semi-dwarf lines had higher grain yield (9·50 t/ha) than the tall lines (8·76 t/ha), while the yield of the Rht-B1b semi-dwarf and dwarf lines did not differ significantly from the tall lines. In each site-season, the presence of the 1BL.1RS chromosome increased grain Δ13C (P<0·001), with an overall increase from 19·7‰ in the 1B lines to 20·0‰ in the 1BL.1RS lines (P<0·001). However, the 1BL.1RS and 1B lines responded similarly to drought. The effect of the presence/absence of awns on grain Δ13C was not statistically significant in either site-season. Overall, the present results show that Rht-D1b confers higher Δ13C and grain yield, and the 1BL.1RS translocation confers higher Δ13C. This implies that modern UK wheat cultivars may have lower water-use efficiency during the grain filling period than their predecessors, and therefore may require more water to fulfil their yield potential.

Type
Crops and Soils
Information
The Journal of Agricultural Science , Volume 149 , Issue 3 , June 2011 , pp. 257 - 272
Copyright
Copyright © Cambridge University Press 2010

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References

REFERENCES

Acevedo, E. (1993). Potential of carbon isotope discrimination as a selection criterion in barley breeding. In Stable Isotopes and Plant Carbon-water Relationships (Eds Ehrlinger, J. R., Hall, A. E. & Farquhar, G. D.), pp. 399–417. New York: Academic Press.CrossRefGoogle Scholar
Araus, J. L., Amaro, T., Casadesus, J., Asbati, A. & Nachit, M. M. (1998). Relationships between ash content, carbon isotope discrimination and yield in durum wheat. Australian Journal of Plant Physiology 25, 835–842.Google Scholar
Araus, J. L., Casadesus, J., Asbati, A. & Nachit, M. M. (2001). Basis of the relationship between ash content in the flag leaf and carbon isotope discrimination in kernels of durum wheat. Photosynthetica 39, 591–596.CrossRefGoogle Scholar
Araus, J. L., Slafer, G. A., Reynolds, M. P. & Royo, C. (2002). Plant breeding and drought in C3 cereals: what should we breed for? Annals of Botany 89, 925–940.CrossRefGoogle Scholar
Araus, J. L., Villegas, D., Aparicio, N., Garcia de Moral, L. F., El Hani, S., Rharrabti, Y., Ferrio, J. P. & Royo, C. (2003). Environmental factors determining carbon isotope discrimination and yield in durum wheat under Mediterranean conditions. Crop Science 43, 170–180.CrossRefGoogle Scholar
Araus, J. L., Slafer, G. A., Royo, C. & Serret, M. D. (2008). Breeding for yield potential and stress adaptation in cereals. Critical Reviews in Plant Science 27, 377–412.CrossRefGoogle Scholar
Aravinda Kumar, B. N. (2006). The physiological and genetic bases of water-use efficiency in winter wheat. PhD Thesis, University of Nottingham.Google Scholar
Bailey, R. J. (1990). Irrigated Crops and their Management. Ipswich: Farming Press.Google Scholar
Bailey, R. J. & Spackman, E. (1996). A model for estimating soil moisture changes as an aid to irrigation scheduling and crop water-use studies: I. Operational details and description. Soil Use and Management 12, 12–128.Google Scholar
Blum, A. (1985). Photosynthesis and transpiration in leaves and ears of wheat and barley varieties. Journal of Experimental Botany 36, 432–440.CrossRefGoogle Scholar
Blum, A. (1986). The effect of heat stress on wheat leaf and ear photosynthesis. Journal of Experimental Botany 37, 111–118.CrossRefGoogle Scholar
Carver, B. F. & Rayburn, A. L. (1994). Comparison of related wheat stocks possessing 1B or 1RS.1BL chromosomes: agronomic performance. Crop Science 34, 1505–1510.CrossRefGoogle Scholar
Calderini, D. F., Dreccer, M. F. & Slafer, G. A. (1995).Genetic improvement in wheat yield and associated traits. A re-examination of previous results and the latest trends. Plant Breeding 114, 108–112.CrossRefGoogle Scholar
Condon, A. G., Richards, R. A. & Farquhar, G. D. (1987). Carbon isotope discrimination is positively correlated with grain yield and dry matter production in field-grown wheat. Crop Science 27, 996–1001.CrossRefGoogle Scholar
Condon, A. G., Richards, R. A. & Farguhar, G. D. (1993). Relationships between carbon-isotope discrimination, water-use efficiency and transpiration efficiency for dryland wheat. Australian Journal of Agricultural Research 44, 1693–1711.CrossRefGoogle Scholar
Condon, A. G., Richards, R. A., Rebetzke, G. J. & Farquhar, G. D. (2002) Improving intrinsic water-use efficiency and crop yield. Crop Science 42, 122–131.Google ScholarPubMed
Condon, A. G., Richards, R. A., Rebetzke, G. J. & Farquhar, G. D. (2004). Breeding for high water use efficiency. Journal of Experimental Botany 55, 2447–2460.CrossRefGoogle ScholarPubMed
Craufurd, P. Q., Austin, R. B., Acevedo, E. & Hall, M. A. (1991). Carbon isotope discrimination and grain yield in barley. Field Crops Research 27, 301–313.CrossRefGoogle Scholar
DEFRA (2008). Agriculture in the United Kingdom. London: DEFRA. Available online at: http://www.defra.gov.uk/evidence/statistics/foodfarm/general/auk/index.htm (verified 26 August 2010).Google Scholar
Ehdaie, B. & Waines, J. G. (1994). Genetic analysis of carbon isotope discrimination and agronomic characters in a bread wheat cross. Theoretical and Applied Genetics 88, 1023–1028.CrossRefGoogle Scholar
Ehdaie, B. & Waines, J. G. (1996). Dwarfing genes, water-use efficiency and agronomic performance of spring wheat. Canadian Journal of Plant Science 76, 707–714.CrossRefGoogle Scholar
Ehdaie, B., Whitkus, R. W. & Waines, J. G. (2003). Root biomass, water-use efficiency, and performance of wheat–rye translocations of chromosomes 1 and 2 in spring bread wheat ‘Pavon’. Crop Science 43, 710–717.Google Scholar
Farquhar, G. D. & Richards, R. A. (1984). Isotopic composition of plant carbon correlates with water-use efficiency of wheat genotypes. Australian Journal of Plant Physiology 11, 539–552.Google Scholar
Farquhar, G. D., O'Leary, M. H. & Berry, J. A. (1982). On the relationship between carbon isotope discrimination and intercellular CO2 concentration in leaves. Australian Journal of Plant Physiology 9, 121–137.Google Scholar
Fischer, R. A. & Maurer, R. (1978). Drought resistance in spring wheat cultivars. 1. Grain yield responses. Australian Journal of Agricultural Research 29, 897–912.CrossRefGoogle Scholar
Fischer, R. A. & Stockman, Y. M. (1986). Increased kernel number in Norin 10-derived dwarf wheat: evaluation of the cause. Australian Journal of Plant Physiology 13, 767–784.Google Scholar
Flintham, J. E., Börner, A., Worland, A. J. & Gale, M. D. (1997). Optimizing wheat grain yield: effects of Rht (gibberellin-insensitive) dwarfing genes. Journal of Agricultural Science, Cambridge 128, 11–25.CrossRefGoogle Scholar
Foulkes, M. J., Scott, R. K. & Sylvester-Bradley, R. (2001). The ability of wheat cultivars to withstand drought in UK conditions: resource capture. Journal of Agricultural Science, Cambridge 137, 1–16.CrossRefGoogle Scholar
Foulkes, M. J., Scott, R. K. & Sylvester-Bradley, R. (2002). The ability of wheat cultivars to withstand drought in UK conditions: formation of grain yield. Journal of Agricultural Science, Cambridge 138, 153–169.CrossRefGoogle Scholar
Foulkes, M. J., Sylvester-Bradley, R., Worland, A. & Snape, J. (2004). Effects of a photoperiod sensitivity gene Ppd-D1 on yield potential and drought resistance in UK winter wheat. Euphytica 135, 63–74.CrossRefGoogle Scholar
Foulkes, M. J., Sylvester-Bradley, R., Weightman, R. & Snape, J. W. (2007). Identifying physiological traits associated with improved drought resistance in winter wheat. Field Crops Research 103, 11–24.CrossRefGoogle Scholar
Innes, P., Hoogendoorn, J. & Blackwell, R. D. (1985). Effects of differences in date of ear emergence and height on yield of winter wheat. Journal of Agricultural Science, Cambridge 105, 543–549.CrossRefGoogle Scholar
IPCC (2007). Contribution of Working Group II to the Fourth Assessment Report of the Intergovernmental Panel on Climate Change, 2007 (Eds Parry, M. L., Canziani, O. F., Palutikof, J. P., van der Linden, P. J. and Hanson, C. E.). Cambridge, UK: Cambridge University Press. Available online at: http://www.ipcc.ch/publications_and_data/ar4/wg2/en/contents.html (verified 26 August 2010).Google Scholar
Lukaszewski, A. J. (1990). Frequency of 1RS/1AL and 1RS/1BL translocations in United States wheats. Crop Science 30, 1151–1153.CrossRefGoogle Scholar
Merah, O., Deleens, E. & Monneveux, P. (1999). Grain yield, carbon isotope discrimination and carbon, mineral and silicon content in leaf and mature kernels of durum wheat under contrasted water regimes. Physiologia Plantarum 107, 387–394.CrossRefGoogle Scholar
Merah, O., Deleens, E. & Monneveux, P. (2001). Relationships between carbon isotope discrimination, dry matter production, and harvest index in durum wheat. Journal of Plant Physiology 158, 723–729.CrossRefGoogle Scholar
Merah, O., Deleens, E., Teulat, B. & Monneveux, P. (2002). Association between yield and carbon isotope discrimination value in different organs of durum wheat under drought. Journal of Agronomy and Crop Science 188, 426–434.CrossRefGoogle Scholar
Miralles, D. J., Katz, S. D., Colloca, A. & Slafer, G. A. (1998). Floret development in near isogenic wheat lines differing in plant height. Field Crops Research 59, 21–30.CrossRefGoogle Scholar
Monneveux, P., Reynolds, M. P., Gonzalez-Santoyo, H., Pena, R. J., Mayr, L. & Zapata, F. (2004). Relationships between grain yield, flag leaf morphology, carbon isotope discrimination and ash content in irrigated wheat. Journal of Agronomy and Crop Science, 190, 395–401.CrossRefGoogle Scholar
Morgan, J. A., Le Cain, D. R., McCaig, T. N. & Quick, J. S. (1993). Gas exchange, carbon isotope discrimination, and productivity in winter wheat. Crop Science 33, 178–186.CrossRefGoogle Scholar
Moreno-Sevilla, B., Baenziger, P. S., Peterson, C. J., Graybosch, R. A. & McVey, D. V. (1995). The 1BL/1RS translocation: Agronomic performance of F3 -derived lines from a winter wheat cross. Crop Science 35, 1051–1055.CrossRefGoogle Scholar
Pask, A. J. D. (2009). Optimising nitrogen storage in wheat canopies for genetic reduction in fertiliser nitrogen inputs. PhD Thesis, University of Nottingham.Google Scholar
Rabinovich, S. V. (1998). Importance of wheat-rye translocations for breeding modern cultivars of Triticum aestivum L. Euphytica 100, 323–340.CrossRefGoogle Scholar
Rajaram, S., Mann, Ch. E., Ortiz-Ferrera, G. & Mujeeb-Kazi, A. (1983). Adaptation, stability and high yield potential of certain 1B/1R CIMMYT wheats. In Proceedings of the 6th International Wheat Genetics Symposium, Plant Germplasm Institute, Kyoto (Ed. Sakamoto, S.), pp. 613–621. Kyoto, Japan: Plant Germplasm Institute, Kyoto University.Google Scholar
Rajaram, S., Villareal, R. & Mujeeb-Kazi, A. (1990). The global impact of 1B/1R spring wheat. In Agronomy Abstracts, p. 105. Madison, WI: ASA.Google Scholar
Rebetzke, G. J., Condon, A. G., Richards, R. A. & Farquhar, G. D. (2002). Selection for reduced carbon-isotope discrimination increases aerial biomass and grain yield of rainfed bread wheat. Crop Science 42, 739–745.CrossRefGoogle Scholar
Rebetzke, G. J., Condon, A. G., Farquhar, G. D., Appels, R. & Richards, R. A. (2008). Quantitative trait loci for carbon isotope discrimination are repeatable across environments and wheat mapping populations. Theoretical and Applied Genetics 118, 123–137.CrossRefGoogle ScholarPubMed
Reynolds, M. P. & Borlaug, N. E. (2006). Impacts of breeding on international collaborative wheat improvement. Journal of Agricultural Science, Cambridge 144, 3–17.CrossRefGoogle Scholar
Reynolds, M., Dreccer, F. & Trethowan, R. (2007). Drought-adaptive traits derived from wheat wild relatives and landraces. Journal of Experimental Botany 58, 177–186.CrossRefGoogle ScholarPubMed
Richards, R. A. (1992). The effect of dwarfing genes in spring wheat in dry environments. I. Agronomic characteristics. Australian Journal of Agricultural Research 43, 517–523.CrossRefGoogle Scholar
Richards, R. A. (1996). Defining selection criteria to improve yield under drought. Plant Growth Regulation 20, 157–166.CrossRefGoogle Scholar
Richards, R. A. (2006). Physiological traits used in the breeding of new cultivars for water-scarce environments. Agricultural Water Management 80, 197–211.CrossRefGoogle Scholar
Richards, R. A., Rebetzke, G. J., Condon, A. G. & van Herwaarden, A. (2002). Breeding for greater water use efficiency in wheat. Crop Science 42, 111–121.CrossRefGoogle Scholar
Sayre, K. D., Acedevo, E. & Austin, R. B. (1995). Carbon isotope discrimination and grain yield for three bread wheat germplasm groups grown at different levels of water stress. Field Crops Research 41, 45–54.CrossRefGoogle Scholar
Suenaga, K. (1994). Doubled haploid system using the intergenericcrosses between wheat (Triticum aestivum) and maize (Zea mays). Bulletin of National Institute of Agrobiological Resources 9, 83–139.Google Scholar
Tottman, D. R. (1987). The decimal code for growth stages of cereals with illustrations. Annals of Applied Biology 110, 441–454.CrossRefGoogle Scholar
Tsialtas, J. T. & Tokatlidis, I. S. (2008). Use of carbon discrimination (ρ) in breeding of C3 cereals under water deficit conditions. Asian Journal of Plant Sciences 7, 518–525.CrossRefGoogle Scholar
Verma, V., Foulkes, M. J., Caligari, P., Sylvester-Bradley, R. & Snape, J. (2004). Mapping quantitative trait loci for flag leaf senescence as a yield determinant in winter wheat under optimal and drought-stressed environments. Euphytica 135, 255–263.CrossRefGoogle Scholar
Villareal, R. L., del Toro, E., Mujeeb-Kazi, A. & Rajaram, S. (1995). The 1BL/1RS chromosome translocation effect on yield characteristics in a Triticum aestivum L. cross. Plant Breeding 114, 497–500.CrossRefGoogle Scholar
Villareal, R. L., Banuelos, O., Mujeeb-Kazi, A. & Rajaram, S. (1998). Agronomic performance of chromosomes 1B and 1BL.1RS near-isolines in the spring bread wheat Seri M82. Euphytica 103, 195–202.CrossRefGoogle Scholar
Voltas, J., Romagosa, I., Muñoz, P. & Araus, J. L. (1998). Mineral accumulation, carbon isotope discrimination and indirect selection for grain yield in two-rowed barley grown under semiarid conditions. European Journal of Agronomy 9, 147–155.CrossRefGoogle Scholar
Weyhrich, R. A., Carver, B. F. & Smith, E. L. (1994). Effects of awn suppression on grain yield and agronomic traits in hard red winter wheat. Crop Science 34, 965–969.CrossRefGoogle Scholar