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Many of our current agricultural crops are natural or agricultural
hybrids (between two or more species), or polyploids (containing
more than one genome or set of chromosomes). These include potato,
oats, cotton, oilseed rape, wheat, strawberries, kiwifruit, banana,
seedless watermelon, triticale and many others. Polyploidy and
hybridization can also be used for crop improvement: for example,
to introgress disease resistance from wild species into crops, to
produce seedless fruits for human consumption, or even to create
entirely new crop types. Some crop genera have hundreds of years of
interspecific hybridization and ploidy manipulation behind them,
while in other genera use of these evolutionary processes for crop
improvement is still at the theoretical stage. This book brings
together stories and examples by expert researchers and breeders
working in diverse crop genera, and details how polyploidy and
hybridization processes have shaped our current crops, how these
processes have been utilized for crop improvement in the past, and
how polyploidy and interspecific hybridization can be used for crop
improvement in the future.
Many of our current agricultural crops are natural or agricultural
hybrids (between two or more species), or polyploids (containing
more than one genome or set of chromosomes). These include potato,
oats, cotton, oilseed rape, wheat, strawberries, kiwifruit, banana,
seedless watermelon, triticale and many others. Polyploidy and
hybridization can also be used for crop improvement: for example,
to introgress disease resistance from wild species into crops, to
produce seedless fruits for human consumption, or even to create
entirely new crop types. Some crop genera have hundreds of years of
interspecific hybridization and ploidy manipulation behind them,
while in other genera use of these evolutionary processes for crop
improvement is still at the theoretical stage. This book brings
together stories and examples by expert researchers and breeders
working in diverse crop genera, and details how polyploidy and
hybridization processes have shaped our current crops, how these
processes have been utilized for crop improvement in the past, and
how polyploidy and interspecific hybridization can be used for crop
improvement in the future.
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