- Genome sequencing reveals evidence of adaptive variation in the genus Zea. Alleles associated with flowering time were key to adaptation in highland and temperate regions.
- THP9 enhances seed protein content and nitrogen-use efficiency in maize. And it came from wild teosinte.
- Diverged subpopulations in tropical Urochloa (Brachiaria) forage species indicate a role for facultative apomixis and varying ploidy in their population structure and evolution. Polyploidy plus apomixis equals world domination. Maize next?
- Plastid phylogenomics uncovers multiple species in Medicago truncatula (Fabaceae) germplasm accessions. Genebanks need to go beyond conventional taxonomy sometimes.
- Comparative Analysis of the Genetic Diversity of Chilean Cultivated Potato Based on a Molecular Study of Authentic Herbarium Specimens and Present-Day Gene Bank Accessions. Native Chilean potato landraces are being replaced and polluted…
- Diversity of Late Blight Resistance Genes in the VIR Potato Collection. …and will probably continue to be replaced and polluted.
- The United States Potato Genebank Holding of cv. Desiree is a Somatic Mutant of cv. Urgenta. Shit happens, even in well-run genebanks.
- Domestication and selection footprints in Persian walnuts (Juglans regia). Breeding hasn’t had much of an effect on diversity.
- Comparative phylogenetic analysis of oolong tea (Phoenix Dancong tea) using complete chloroplast genome sequences. Oolong teas are a genetic thing.
- Linking breadfruit cultivar names across the globe connects histories after 230 years of separation. Because of genebanks, botanic gardens, herbaria and three generations of women scientists we now know which breadfruit varieties Captain Bligh introduced to the West Indies.
- Lactuca georgica Grossh. is a wild species belonging to the secondary lettuce gene pool: additional evidence, obtained by KASP genotyping. A wild species gets demoted.
- Large genomic introgression blocks of Phaseolus parvifolius Freytag bean into the common bean enhance the crossability between tepary and common beans. A wild species helps with crossing two cultivated species. Figure out which genepool it belongs to after that.
- Genebanking plant genetic resources in the postgenomic era. Yeah, but all the above leads to the question: “what happens when all crop diversity has been sequenced?” Read this to find out.
Brainfood: Breeding edition
- Climate change may outpace current wheat breeding yield improvements in North America. Breeders need to try harder, at least for spring wheat.
- Large-scale genotyping and phenotyping of a worldwide winter wheat genebank for its use in pre-breeding. But winter wheat could do with some help too, and genebanks are there for you, breeders.
- Exotic alleles contribute to heat tolerance in wheat under field conditions. Maybe wild relatives are the answer?
- Agronomic assessment of two populations of intermediate wheatgrass—Kernza® (Thinopyrum intermedium) in temperate South America. Even really, really wild, and perennial, relatives.
- Sustained productivity and agronomic potential of perennial rice. Maybe perennial wheat breeders can learn from perennial rice breeders.
- CGIAR Barley Breeding Toolbox: A diversity panel to facilitate breeding and genomic research in the developing world. Good to see barley is not being left behind. Perennial barley next, anyone?
- Developing drought-smart, ready-to-grow future crops. It’s not like breeders have no idea about what to do and how to do it…
- Molecular evidence for adaptive evolution of drought tolerance in wild cereals. …and there’s diversity out there in the wild relatives to play with. Even without getting into the weird perennial stuff.
- Impact of CGIAR maize germplasm in Sub-Saharan Africa. So let’s be optimistic, there are success stories. Although, cripes, I’d like to see perennial maize.
- Genomic prediction for the Germplasm Enhancement of Maize project. Which is not to say there’s no room for improvement too.
- Maize plants and the brace roots that support them. Yeah, like for example how many of these fancy CGIAR and GEM maize varieties have brace roots?
- Retrospective study in US commercial sorghum breeding: I. Genetic gain in relation to relative maturity. US breeders have been really successful for sorghum too, though maybe not successful enough.
- Evaluation of a Subset of Ethiopia Sorghum Collection Germplasm from the National Genetic Resources Program of the United States Department of Agriculture for Anthracnose Resistance. And that success may be spilling over to Ethiopia. Well I’d like to think so anyway, or the whole conceit of this Brainfood will go up in smoke.
- Genomics-based assembly of a sorghum bicolor (L.) Moench core collection in the Uganda national genebank as a genetic resource for sustainable sorghum breeding. And maybe Uganda too? Yes, I’m doubling down.
- GridScore: a tool for accurate, cross-platform phenotypic data collection and visualization. All these breeders need to store and manage their data, of course, and here’s a way to do that.
- The Impact of N.I. Vavilov on the Conservation and Use of Plant Genetic Resources in Scandinavia: A Review. Arguably all of the above is the result of the sort of international collaboration that Vavilov exemplified, perhaps even pioneered?
Brainfood: Sustainable diets, Resilient food system, IK in food systems double, Herbarium double, Ag research priorities, Fruits & vegetables, Cryopreservation, Diverse diets, Gene editing orphan crops, Ag revolution 4.0, Diversification, Monoculture, Agroecology, Regenerative ag, Plant health, Svalbard, Seed banking theory, Comms double
- Interventions for sourcing EAT-Lancet diets within national agricultural areas: A global analysis. Half the world’s population can eat healthily off the land in their own country, and 95% could.
- Reframing the local–global food systems debate through a resilience lens. Yeah, but there’s more to resilience than local vs global.
- Indigenous knowledge is key to sustainable food systems. Local people know all about sustainability and resilience.
- Global principles in local traditional knowledge: A review of forage plant-livestock-herder interactions. Yes, even — especially? — pastoral people.
- Using botanical resources to select wild forage legumes for domestication in temperate grassland agricultural systems. Not that said local people might not need a little help…
- The herbarium of the future. …for example from the herbarium of the future. Which actually sounds a lot like the genebank of the future.
- Multidimensional impacts from international agricultural research: Implications for research priorities. You want income growth? Invest in fruit and vegetables research and development. You want anything else? Cereals.
- Safeguarding and Using Fruit and Vegetable Biodiversity. Somebody mention fruit and vegetable R&D? Here’s how to start. Spoiler alert: the genebank of the future…
- In Vitro Conservation through Slow Growth Storage Technique of Fruit Species: An Overview of the Last 10 Years. …will need to be into cryo.
- Does the high dietary diversity score predict dietary micronutrients adequacy in children under 5 years old? A systematic review. This is why we need fruits and vegetables. But to eat them, not just to grow lots of them. How many of these kids are on the EAT-Lancet diet anyway?
- Integrating genomics and genome editing for orphan crop improvement: a bridge between orphan crops and modern agriculture system. And lots of fruits and vegetables are so-called orphan, and might need a helping hand, I suppose.
- The old, the new, or the old made new? Everyday counter-narratives of the so-called fourth agricultural revolution. A helping hand from technology you mean? Maybe, but best to mistrust grand narratives.
- Achieving win-win outcomes for biodiversity and yield through diversified farming. Adopting orphan crops can be route to farming system diversification, which can be good for both yields and biodiversity. How’s that for a grand narrative?
- Rapid transgenerational adaptation in response to intercropping reduces competition. Staple crops bred are adapted to monoculture? Not necessarily.
- Agroecology in the North: Centering Indigenous food sovereignty and land stewardship in agriculture “frontiers”. All this diversification is beginning to sound a lot like some kind of agroecology. Even in the Global North. And I mean very North.
- Regenerative food systems and the conservation of change. Ok, but agroecology is not about the practices employed, but rather how the system is organized. Always good to occasionally step back and theorize.
- Sustainable management of transboundary pests requires holistic and inclusive solutions. None of the above is going to work if we’re knee-deep in pests.
- The eternal return: Imagining security futures at the Doomsday Vault. Apocalypse. Hope. Escape. No grander narrative than that for the most iconic genebank of the present.
- Carrier Seeds: A Cultural Analysis of Care and Conflict in Four Seed Banking Practices. Genebanks (maybe even Svalbard?) conserve more than just seeds: the theory and the practice deconstructed.
- Why facts don’t change minds: Insights from cognitive science for the improved communication of conservation research. Ok, but how to communicate all the above for maximum impact? Spoiler alert: forget about disseminating scientific facts widely to change individual minds. Instead, target the behaviour of strategic groups through values and emotions…
- Spread the word: Sharing information on social media can stabilize conservation funding and improve ecological outcomes. …using social media. Wait, does that mean I have to TikTok all this stuff now?
Brainfood: Neolithic microbiomes, Transeurasian languages, Rice history, Chinese Neolithic, Indo-European origins, Chalcolithic stews, Indus Valley hydrology, Bronze Age opium, Cassava storage
- Ancient oral microbiomes support gradual Neolithic dietary shifts towards agriculture. The adoption of agriculture was gradual.
- Triangulation supports agricultural spread of the Transeurasian languages. The ancestors of the speakers of 98 related languages — including Japanese, Korean, Tungusic, Mongolic and Turkic — were the first millet farmers gradually spreading across Northeast Asia.
- Modelling the chronology and dynamics of the spread of Asian rice from ca. 8000 BCE to 1000 CE. Deep breath. Rice domestication originated in eastern China (7430 BCE) and northeastern South Asia (6460 BCE). Then gradually spread in 2 waves: (1) in the 4th-3rd millennia BCE to the rest of China and SE Asia, associated with millet cultivation (Transeurasian speakers?), and (2) in 1st BCE-1st CE to Liao River region, Central Asia, and Africa.
- Plant foods consumed at the Neolithic site of Qujialing (ca. 5800-4200 BP) in Jianghan Plain of the middle catchment of Yangtze River, China. Not just rice and millets but also job’s tears, lotus roots, yam, acorns and beans.
- Indo-European cereal terminology suggests a Northwest Pontic homeland for the core Indo-European languages. The speakers of Proto-Indo-European, on the other hand, gradually making their way from the steppes, were not farmers.
- Revealing invisible stews: new results of organic residue analyses of Beveled Rim Bowls from the Late Chalcolithic site of Shakhi Kora, Kurdistan Region of Iraq. Not by bread alone… Iconic, hastily-made, throw-away pottery bowls from 3500 BCE were not bread moulds but rather held tasty stews. No job’s tears and lotus roots, alas, though.
- Phytoliths as indicators of plant water availability: The case of millets cultivation in the Indus Valley civilization. Sorghum and millets were growing under water stress at several Mature Harappan (2500–1900 BCE) sites. But they could take it.
- Opium trade and use during the Late Bronze Age: Organic residue analysis of ceramic vessels from the burials of Tel Yehud, Israel. People were getting high in the 14th century BCE. And who can blame them, after millennia of domesticating plants and gradually spreading around the world.
- Adaptations of Pre-Columbian Manioc Storage Techniques as Strategies to Adapt to Extreme Climatic Events in Amazonian Floodplains. Some current agricultural practices can be seen in the archaeological record. And not just getting high on opium.
- See you in the new year, everyone!
Brainfood: Silkworm, Donkey, Cat, Chicken, Neolithic, Shamans, Locusts
- High-resolution silkworm pan-genome provides genetic insights into artificial selection and ecological adaptation. The silkworm was domesticated 5000 years ago in the middle Yellow River (along with millets?), but was improved independently and in different directions in China and Japan.
- The genomic history and global expansion of domestic donkeys. The donkey was domesticated in the Horn of Africa 7000 years ago and then developed in different directions in Africa and Eurasia.
- Your horse is a donkey! Identifying domesticated equids from Western Iberia using collagen fingerprinting. Turns out you can tell horses and donkeys apart easily and cheaply from ancient collagen in archaeological remains.
- Genetics of randomly bred cats support the cradle of cat domestication being in the Near East. Humans were domesticated by cats in the eastern Mediterranean basin about 12,000 years ago.
- The history of the domestic cat in Central Europe. Wait, the Near Eastern wildcat, from which all domestic cats are derived, could have been in central Europe before the Neolithic.
- Missing puzzle piece for the origins of domestic chickens. Recent dating of chicken domestication from archaeological remains in Thailand at 1650–1250 BC underestimates the timescale. By a lot.
- Was the Fishing Village of Lepenski Vir Built by Europe’s First Farmers? And did they have cats?
- Shamanism at the transition from foraging to farming in Southwest Asia: sacra, ritual, and performance at Neolithic WF16 (southern Jordan). You need shamans to help you cope with all that animal domestication.
- Contributions of black locust (Robinia pseudoacacia L.) to livelihoods of peri-urban dwellers in the Free State Province of South Africa. Wait, black locusts are not animals? Hmm, they do seem to have some things in common with cats though.