wheat

Breeding for the future: How to adapt to potential impacts of future frost, drought and heat events on Australian wheat?
While extreme climatic events (frost, heat and drought) can already severely limit wheat production, the expected future increase in …
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Breeding for the future – avoiding climate extremes and maximising yield of spring wheat in water-limited environments
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Crop design for specific adaptation in variable dryland production environment
Climatic variability in dryland production environments (E) generates crop production risks. Optimal combinations of genotype (G) and …
Predicting heading time of Australian wheat using effects of VRN1 and Ppd-D1
Flowering time is a main determinant of wheat adaptation to diverse environments and is influenced by three groups of genes, earliness …
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Role of genotypic variation in response to increasing temperatures in wheat
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Using gene-based information to adapt wheat flowering time to avoid heat, frost and drought stresses in current and future climates
Varying the timing of reproductive stages of growth relative to climatic stresses is a useful adaptation to maintain yields. In future …
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Quantification of the effects of VRN1 and Ppd-D1 to predict spring wheat (Triticum aestivum) heading time across diverse environments
Heading time is a major determinant of the adaptation of wheat to different environments, and is critical in minimizing risks of frost, …
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Association genetics for earliness components and QTL-based ecophysiological predictions of heading date provide tools to optimize heading date through breeding
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Wheat response to drought and heat - Using crop modelling to prepare for the future
While extreme temperature and frequent drought severely affect wheat production, predictions of climate change forecast increased …
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Wheat flowering
Genetics and physiology of wheat development to flowering: tools to breed for improved adaptation and yield potential