Accelerating silphium domestication: An opportunity to develop new crop ideotypes and breeding strategies informed by multiple disciplines

• Autores: Van Tassel, David; Albrecht, Kenneth A.; Bever, James D.; Boe, Arvid A.; Brandvain, Yaniv; Crews, Timothy E.; Gansberger, Markus; Gerstberger, Pedro; González Paleo, Luciana; Hulke, Brent S.; Kane, Nolan C.; Johnson, Paul J.; Pestsova, Elena G.; Picasso Risso, Valentín D.; Prasifka, Jarrad R.; Ravetta, Damián Andrés; Schlautman, Brandon; Sheaffer, Craig C.; Smith, Kevin P.; Speranza, Pablo R.
• Año de publicación: 2017
• Idioma: inglés
• Tipo de recurso: artículo
• Materia: New Crops; Perennials; Domestication; Ideotype
• Institución: Consejo Nacional de Investigaciones Científicas y Técnicas

Silphium perfoliatum L. (cup plant, silphie) and S. integrifolium Michx. (rosinweed, silflower) are in the same subfamily and tribe as sunflower (Helianthus annuus L.). Silphium perfoliatum has been grown in many countries as a forage or bioenergy crop with forage quality approaching that of alfalfa (Medicago sativa L.) and biomass yield close to maize (Zea mays L.) in some environments. Silphium integrifolium has large seeds with taste and oil quality similar to traditional oilseed sunflower. Silphium species are all long-lived, diploid perennials. Crops from this genus could improve the yield stability, soil, and biodiversity of agricultural landscapes because, in their wild state, they are deep rooted and support a wide diversity of pollinators. In contrast with premodern domestication, de novo domestication should be intentional and scientific. We have the luxury and obligation at this moment in history to expand the domestication ideotype from food and energy production to include (i) crop-driven ecosystem services important for sustainability, (ii) genetic diversity to enable breeding progress for centuries, (iii) natural adaptations and microbiome associations conferring resource use efficiency and stress tolerance, and (iv) improving domestication theory itself by monitoring genetic and ecophysiological changes from predomestication baselines. Achieving these goals rapidly will require the use of next-generation sequencing for marker development and an international, interdisciplinary team committed to collaboration and strategic planning.
Fil: Van Tassel, David. Land Institute; Estados Unidos
Fil: Albrecht, Kenneth A.. University Of Wisconsin Madison;
Fil: Bever, James D.. University of Kansas; Estados Unidos
Fil: Boe, Arvid A.. South Dakota State University; Estados Unidos
Fil: Brandvain, Yaniv. University of Minnesota; Estados Unidos
Fil: Crews, Timothy E.. Land Institute; Estados Unidos
Fil: Gansberger, Markus. Austrian Agency For Health And Food Safety; Austria
Fil: Gerstberger, Pedro. University of Bayreuth; Alemania
Fil: González Paleo, Luciana. Consejo Nacional de Investigaciones Científicas y Técnicas; Argentina. Museo Paleontológico Egidio Feruglio; Argentina
Fil: Hulke, Brent S.. United States Department of Agriculture. Agriculture Research Service; Estados Unidos
Fil: Kane, Nolan C.. University of Colorado; Estados Unidos
Fil: Johnson, Paul J.. Insect Biodiversity Laboratory; Estados Unidos
Fil: Pestsova, Elena G.. Heinrich Heine Universitat;
Fil: Picasso Risso, Valentín D.. University of Wisconsin; Estados Unidos
Fil: Prasifka, Jarrad R.. United States Department of Agriculture. Agriculture Research Service; Estados Unidos
Fil: Ravetta, Damián Andrés. Consejo Nacional de Investigaciones Científicas y Técnicas; Argentina. Museo Paleontológico Egidio Feruglio; Argentina
Fil: Schlautman, Brandon. Land Institute; Estados Unidos
Fil: Sheaffer, Craig C.. University of Minnesota; Estados Unidos
Fil: Smith, Kevin P.. University of Minnesota; Estados Unidos
Fil: Speranza, Pablo R.. Universidad de la República; Uruguay