- The Chinese Academy of Agricultural Sciences genebank fills some gaps.
- I wonder if any of those new accessions are “opportunity crops.”
- Because they are sorely needed, for example in Africa.
- Which is not to say working on staples like maize isn’t cool. Just ask Jeffrey Ross-Ibarra.
- Working on sweet potato can also be, well, sweet. Case in point: gorgeous book on the varieties of the Canaries.
- There’s an opportunity to help the Land Institute with its research on perennial crops.
- And yes, seeds are indeed alive. Just ask CAAS.
Nibbles: Public breeding, Millet Man, Strampelli museum, Ghana community seedbanks, genebank trifecta, CWR, Illegal Canadian potatoes, Açaí GI, Mayocoba bean, Spartan Actinidia, Bitters
- Public sector plant breeders are disappearing.
- The Millet Man of India is still there though. And why he’s important.
- A museum to public sector breeder Nazareno Strampelli appears in Italy.
- Another couple of community genebanks appear in Ghana.
- We can never have too many discussions on the importance of genebanks, so here’s another one. Not much on the community sort, though. Here’s another example: Ireland. Even the Arab States of Asia want one!
- And a deep dive on crop wild relatives in genebanks to round things off.
- A community saves illegal potatoes in Canada. Yeah, I know, there’s a lot to unpack there.
- Maybe that humble illegal potato needs a geographic indication, like that superfood, açaí.
- The Mayocoba bean as a superfood is a bit of a stretch, but there’s plenty of other pulses out there making waves.
- The Michigan State kiwi could probably do with a geographic indication too, come to think of it. Cold-hardy and smooth-skinned? Super!
- Ok, this is probably the last Nibbles before Christmas, so let’s celebrate with a drink: with bitters of course.
Brainfood: MLS, PPP, GMOs, SINAREFI, FGD, InDel
- What Plant Genetic Resources for Food and Agriculture Are Available under the Plant Treaty and Where Is This Information? It’s really difficult to know, and it shouldn’t be.
- Bridging the gap? Public–private partnerships and genetically modified crop development for smallholder farmers in Africa. They really haven’t worked. But should they have?
- Recalcitrant maize: Conserving agrobiodiversity in the era of genetically modified organisms. Trying to keep landraces and GMOs both physically and conceptually apart won’t work, and doesn’t need to.
- Flavour, culture and food security: The spicy entanglements of chile pepper conservation in 21st century Mexico. Efforts to ensure food security needs to take flavour into account if they are to work.
- Gender differential in choices of crop variety traits and climate-smart cropping systems: Insights from sorghum and millet farmers in drought-prone areas of Malawi. Efforts to improve crop adaptation and resilience to climate change need to take gender into account if they are to work.
- A target cultivar-specific identification system based on the chromatographic printed array strip method for eight prominent Japanese citrus cultivars. Specific DNA markers can be used to enforce plant breeders’ rights.
Brainfood: Lima bean network, Obake rice, Feral Canadian apples, African plum seed systems, Canary Island potatoes, Wild potatoes & late blight, Wild lentils & drought, Wild grapes & salt, Robusta core, Ethiopian barley diversity, De novo wheat domestication
- International Lima Bean Network: from the origin of the species to modern plant breeding. And you can join it here.
- Solving the mystery of Obake rice in Africa: population structure analyses of Oryza longistaminata reveal three genetic groups and evidence of both recent and ancient introgression with O. sativa. The wild African O. longistaminata is closer to Asian O. sativa than to other African wild species, and shows evidence of ancient introgression from O. sativa in southern Africa. Definitely worth a network.
- The origins and evolutionary history of feral apples in southern Canada. They are mainly recombinants involving early heritage cultivars, with no hybridization with local wild species. So, not like rice in Africa.
- Can seed exchange networks explain the morphological and genetic diversity in perennial crop species? The case of the tropical fruit tree Dacryodes edulis in rural and urban Cameroon. Cities are hotspots of African plum diversity because people bring in tress from all over the place. So, a bit like apples in Canada.
- Ancient Potato Varieties of the Canary Islands: Their History, Diversity and Origin of the Potato in Europe. “The Andes end in the Canary Islands.” A bit like how the Caucasus ends in Canada?
- Functional diversification of a wild potato immune receptor at its center of origin. Wild species can be used to improve the late blight tolerance of cultivated potatoes.
- Limited-transpiration trait in response to high vapor pressure deficit from wild to cultivated species: study of the Lens genus. Wild species can be used to improve the drought tolerance of cultivated lentils.
- A Tunisian wild grape leads to metabolic fingerprints of salt tolerance. Wild species can be used to improve the salt tolerance of cultivated grapes.
- Characterization of the genetic composition and establishment of a core collection for the INERA Robusta coffee (Coffea canephora) field genebank from the Democratic Republic of Congo. From 730 shrubs to 263 unique genotypes to 10 plants with 93% of the alleles. Some wild stuff involved. Do the same for African plum?
- Genetic diversity within landraces of barley (Hordeum vulgare L.) and its implications on germplasm collection and utilization. Maybe we should do core collections for each landrace?
- Phenotyping and identification of target traits for de novo domestication of wheat wild relatives. Maybe we should try it with that wild African rice too.
Eat this maize podcast
Jeremy’s latest podcast is out, and it’s a doozie. Plus it saves me adding it to the next Brainfood, which is coming soon, don’t worry people.
Modern maize has long been a puzzle. Unlike other domesticated grasses, there didn’t seem to be any wild species that looked like the modern cereal and from which farmers could have selected better versions. For a long time, botanists weren’t even sure which continent maize was from. That seemed to be settled with the discovery in lowland Mexico of teosinte, a wild and weedy relative of maize. But there was a problem. A lot of the later genetic work to understand the transformation of teosinte into maize found remnants of different types of teosinte.
Jeffrey Ross-Ibarra and his colleagues have sorted out the story, which is now more complicated, better understood, and offers some hope for future maize breeding. Their paper was published last week in Science.