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25. Content

Author

Small, Ian

Published
1993

35. Title

Author

Small, Ian

Published
1993

36. Preface

Author

Small, Ian

Published
1993

44. Soybean Disease Loss Estimates from the United States and Ontario, Canada — 2023

Author

Sikora, Ed, primary, Faske, Travis, additional, Spurlock, Terry, additional, Koehler, Alyssa, additional, Grabau, Zane, additional, Small, Ian, additional, Kemerait, Bob, additional, Mideros, Santiago, additional, Bond, Jason, additional, Telenko, Darcy, additional, Mueller, Daren, additional, Sisson, Adam, additional, Onofre, Rodrigo, additional, Wise, Kiersten, additional, Price, Trey, additional, Chilvers, Marty, additional, Malvick, Dean, additional, Allen, Tom, additional, Bish, Mandy, additional, Jackson-Ziems, Tamra, additional, Broderick, Kyle, additional, Bergstrom, Gary, additional, Heiniger, Ron, additional, Ahumada, Daisy, additional, Friskop, Andrew, additional, Paul, Pierce, additional, Rodrigues Duffeck, Maria, additional, Tenuta, Albert, additional, Roth, Greg, additional, Collins, Alyssa, additional, Esker, Paul, additional, Mueller, John, additional, Plumblee, Michael, additional, Shires, Madalyn, additional, Kelly, Heather, additional, Isakeit, Tom, additional, Langston, David, additional, Zeng, Yuan, additional, and Smith, Damon, additional

Published
2024
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48. Multiple wheat genomes reveal global variation in modern breeding

Author

Walkowiak, Sean, Gao, Liangliang, Monat, Cecile, Haberer, Georg, Kassa, Mulualem T, Brinton, Jemima, Ramirez-Gonzalez, Ricardo H, Kolodziej, Markus C, Delorean, Emily, Thambugala, Dinushika, Klymiuk, Valentyna, Byrns, Brook, Gundlach, Heidrun, Bandi, Venkat, Siri, Jorge Nunez, Nilsen, Kirby, Aquino, Catharine, Himmelbach, Axel, Copetti, Dario, Ban, Tomohiro, Venturini, Luca, Bevan, Michael, Clavijo, Bernardo, Koo, Dal-Hoe, Ens, Jennifer, Wiebe, Krystalee, N’Diaye, Amidou, Fritz, Allen K, Gutwin, Carl, Fiebig, Anne, Fosker, Christine, Fu, Bin Xiao, Accinelli, Gonzalo Garcia, Gardner, Keith A, Fradgley, Nick, Gutierrez-Gonzalez, Juan, Halstead-Nussloch, Gwyneth, Hatakeyama, Masaomi, Koh, Chu Shin, Deek, Jasline, Costamagna, Alejandro C, Fobert, Pierre, Heavens, Darren, Kanamori, Hiroyuki, Kawaura, Kanako, Kobayashi, Fuminori, Krasileva, Ksenia, Kuo, Tony, McKenzie, Neil, Murata, Kazuki, Nabeka, Yusuke, Paape, Timothy, Padmarasu, Sudharsan, Percival-Alwyn, Lawrence, Kagale, Sateesh, Scholz, Uwe, Sese, Jun, Juliana, Philomin, Singh, Ravi, Shimizu-Inatsugi, Rie, Swarbreck, David, Cockram, James, Budak, Hikmet, Tameshige, Toshiaki, Tanaka, Tsuyoshi, Tsuji, Hiroyuki, Wright, Jonathan, Wu, Jianzhong, Steuernagel, Burkhard, Small, Ian, Cloutier, Sylvie, Keeble-Gagnère, Gabriel, Muehlbauer, Gary, Tibbets, Josquin, Nasuda, Shuhei, Melonek, Joanna, Hucl, Pierre J, Sharpe, Andrew G, Clark, Matthew, Legg, Erik, Bharti, Arvind, Langridge, Peter, Hall, Anthony, Uauy, Cristobal, Mascher, Martin, Krattinger, Simon G, Handa, Hirokazu, Shimizu, Kentaro K, Distelfeld, Assaf, Chalmers, Ken, Keller, Beat, Mayer, Klaus FX, Poland, Jesse, Stein, Nils, McCartney, Curt A, Spannagl, Manuel, Wicker, Thomas, and Pozniak, Curtis J

Subjects
Genetics, Biotechnology, Human Genome, Acclimatization, Animals, Centromere, Chromosome Mapping, Cloning, Molecular, DNA Copy Number Variations, DNA Transposable Elements, Edible Grain, Genes, Plant, Genetic Introgression, Genetic Variation, Genome, Plant, Genomics, Haplotypes, Insecta, Internationality, NLR Proteins, Plant Breeding, Plant Diseases, Plant Proteins, Polymorphism, Single Nucleotide, Polyploidy, Triticum, General Science & Technology
Abstract

Advances in genomics have expedited the improvement of several agriculturally important crops but similar efforts in wheat (Triticum spp.) have been more challenging. This is largely owing to the size and complexity of the wheat genome1, and the lack of genome-assembly data for multiple wheat lines2,3. Here we generated ten chromosome pseudomolecule and five scaffold assemblies of hexaploid wheat to explore the genomic diversity among wheat lines from global breeding programs. Comparative analysis revealed extensive structural rearrangements, introgressions from wild relatives and differences in gene content resulting from complex breeding histories aimed at improving adaptation to diverse environments, grain yield and quality, and resistance to stresses4,5. We provide examples outlining the utility of these genomes, including a detailed multi-genome-derived nucleotide-binding leucine-rich repeat protein repertoire involved in disease resistance and the characterization of Sm16, a gene associated with insect resistance. These genome assemblies will provide a basis for functional gene discovery and breeding to deliver the next generation of modern wheat cultivars.

Published
2020

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