- Genetic structure and domestication of carrot (Daucus carota subsp. sativus) (Apiaceae). Origin in Central Asia, but no genetic bottleneck (sic).
- Data collection and assessment of commonly consumed foods and recipes in six geo-political zones in Nigeria: Important for the development of a National Food Composition Database and Dietary Assessment. Nigerians eat a lot of soup.
- The integration of crop rotation and tillage practices in the assessment of ecosystem services provision at the regional scale. Good trick if you can do it.
- Nutritional composition of minor indigenous fruits: Cheapest nutritional source for the rural people of Bangladesh. If only the rural people knew about this.
- Effectiveness of selection at CIMMYT’s main maize breeding sites in Mexico for performance at sites in Africa and vice versa. Is high. Phew.
- Olive trees as bio-indicators of climate evolution in the Mediterranean Basin. Olives in Germany by 2100?
- Crop genetic diversity benefits farmland biodiversity in cultivated fields. Mixed wheat fields better for soil invertebrate biodiversity than fields with single varieties.
- IT background of the medium-term storage of Martonvásár Cereal Genebank resources in phytotron cold rooms. The interesting thing is that the system links genebank data with breeders’ data. Don’t see that a lot.
Brainfood: Wild pepper, Lettuce gene, Qat genetic structure, Date oases, Raised fields, Waxy sorghum, Striga resistant cowpea, Wild soybean, Kenaf diversity
- Domestication, Conservation, and Livelihoods: A Case Study of Piper peepuloides Roxb. — An Important Nontimber Forest Product in South Meghalaya, Northeast India. Managed crop wild relative manages to turn a profit for Indian forest dwellers.
- Expression of 9-cis-EPOXYCAROTENOID DIOXYGENASE4 Is Essential for Thermoinhibition of Lettuce Seed Germination but Not for Seed Development or Stress Tolerance. Managed crop wild relative gene could eventually turn a profit for commercial lettuce growers.
- Evaluation of microsatellites of Catha edulis (qat; Celastraceae) identified using pyrosequencing. Can be used to trace origin. The Man exults.
- Date palm as a keystone species in Baja California peninsula, Mexico oases. Jesuit-introduced exotics can be keystone species too. The Pope exults.
- Ancient human agricultural practices can promote activities of contemporary non-human soil ecosystem engineers: A case study in coastal savannas of French Guiana. Formerly managed landscape now managed by soil organisms.
- A novel waxy allele in sorghum landraces in East Asia. Out of East Asia…
- Identification of new sources of resistance to Striga gesnerioides in cowpea germplasm. As ever, they are not the ones farmers actually like.
- Development of EST-SSR markers for diversity and breeding studies in opium poppy. And, they work on the related species! Afghans exult.
- Kunitz trypsin inhibitor polymorphism in the Korean wild soybean (Glycine soja Sieb. & Zucc.). In other news, there is wild soybean in Korea.
- Genetic diversity and phylogenetic relationship of kenaf (Hibiscus cannabinus L.) accessions evaluated by SRAP and ISSR. Originated in Kenya-Tanzania area.
Brainfood: Farming systems, Connectivity, Neolithic China, Paleolithic China, Wheat genomes, Litter domestication, Arabian relatives, Pepper composition, GMOs vs agrobiodiversity
- Using biodiversity to link agricultural productivity with environmental quality: Results from three field experiments in Iowa. Diversify any way you can. Even in Iowa.
- Improving conservation planning for semi-natural grasslands: Integrating connectivity into agri-environment schemes. Connect any way you can. Even in Europe.
- Early millet use in northern China. Very early. Starch grains push broomcorn millet use in China back 1,000 years, and foxtail millet 2,000.
- Paleolithic human exploitation of plant foods during the last glacial maximum in North China. And ten thousand years before millets, there were wild grasses, roots, tubers and gourds.
- Draft genome of the wheat A-genome progenitor Triticum urartu. Can be used to find agronomically important genes. But settle down, it’s only one of the 3 wheat genomes, after all.
- Aegilops tauschii draft genome sequence reveals a gene repertoire for wheat adaptation. Not so fast, here comes the D genome too…
- Side-effects of plant domestication: ecosystem impacts of changes in litter quality. Domestication led to higher quality, more easily decomposed litter.
- Crop wild relatives from the Arabian Peninsula. 400 of them.
- Compositional Characterization of Native Peruvian Chili Peppers (Capsicum spp.). There’s much variation, but not that much.
- Feeding the world: genetically modified crops versus agricultural biodiversity. Guess which one is drinking the other’s milkshake. And a similar blast from the past.
A history of human eating habits

Cambridge University Press, pp 182, 2011
The sheer range of things that people consider edible is bewildering. So too the disagreements among people. Your mopane worms turn my stomach. My horsemeat lasagne is an affront to far more than your desire for truth in labelling. So are there any valid generalisations about human diets and appetites and how they came to be? Kristen J. Gremillion, a professor of anthropology at Ohio State University, thinks so. Biological evolution equipped us with the physical and biochemical machinery for processing some kinds of foods and not others. Social and cultural evolution then added layers of adaptability and flexibility. Of course there are differences in the apparatus, most famously perhaps the ability of adults to digest the lactose in milk, but the cultural differences are far more important and make us what we are: consumate omnivores.
Ancestral Appetites is by no means a comprehensive or exhaustive survey, but it is all the more readable and enjoyable for that. This is fine popular science, with none of the excesses that accompany other similar efforts to explore human diet. To begin with Gremillion takes a straightforward chronological approach, but rather than starting a little before the birth of agriculture she takes us right back to the golden age of hominins, as we must learn to call our ancestors who aren’t also ancestors of chimpanzees or gorillas. And she explains how researchers today know what our ancestors ate with much more accuracy than before thanks to vastly improved analytical tools. Things like the ratio of strontium to calcium in the bones, which reveals the balance between plants and meat in the diet, or the prevalence of 13C, an indicator of dryer, hotter conditions, or a much finer understanding of the patterns of tooth wear and tear caused by different foods.
Social evolution and the culture it enables act as a store for the trial and error discoveries societies make. Each generation does not have to repeat the mistakes of its parents, but because this behaviour is learned, it isn’t a trap either. We don’t need to learn afresh, but nor are we constrained to do only what our parents did. We can discover new things to eat, new ways to prepare them, new ways to nourish ourselves; this combination of tradition and innovation is one of the primary factors that enabled humans to spread out around the world. At some stage, of course, it also enabled some bright sparks to start on the road from cultivation to domestication and hunting to husbandry.
At this point Gremillion cleverly switches tack, abandoning chronology in order to examine hunger and abundance, flip sides of the same coin. I warmed to the idea of the social stomach. When we have enough, we feed others, especially if the food is difficult to store or defend. When we lack, we expect others to feed us. Sharing like this shades into the use of food as expressions of power and privilege, another behaviour that is surprisingly ancient. All in all, Ancestral Appetites powerfully conveys the continuity of human foodways. Each band of African hominins presumably shared the same basic diet. As their descendants fanned out across the world, tradition and innovation allowed them to adapt to almost all circumstances.
Does knowing what we used to eat shed any light on what we ought to eat? Gremillion agrees that the Paleolithic diet offers health benefits, but it is not the only set of choices to do so, and she sees growing “nostalgia for the Pleistocene” as further evidence that our history has provided us with the creativity and intelligence to optimize nutrition in many, many ways. Some of those choices, however, just don’t make sense, and Gremillion touches on Richard Wrangham’s idea that cooking made us human at least partly to debunk raw food enthusiasts:
“[B]esides ruling out many of the foods that taste buds delight in, a raw food diet eliminates the rewards of cooking as well as the drawbacks. Cooking caught on for a reason; not only is it easier on the teeth and jaws than the tearing and crushing of hard, fibrous and elastic materials, but it has the benefit of breaking down the compounds in food in ways that facilitate the extraction of nutrients.”
That’s Wrangham’s primary point; cooking increases efficiency of eating, and we have to be very well supplied willingly to give that up. Increasingly, though, we are very well supplied. Indeed, the evolutionary argument — that until yesterday it was all but impossible to eat too much fat, sugar or salt — probably explains why our ability to control our appetites for those things is so ill developed. That doesn’t mean we shouldn’t try, and Gremillion welcomes the fact that some of us do limit our intake as support for her basic thesis.
“Paradoxically, our flexibility as a species allows us the freedom to constrain ourselves as individuals in ways our ancestors would probably find incomprehensible.”
If the past is any guide, our ancestral appetites, filtered through biological and social evolution, will keep some of us well fed well into the future; so bring on the mopane worms.
Ancestral Appetites: food in prehistory, by Kristen J. Gremillion, was published by Cambridge University Press in 2011 (although I found out about it very recently).
Paperback £17.99 US$27.99 ISBN: 9780521727075
Hardback £50.00 US$88.00 ISBN: 9780521898423
Brainfood: Coconut and climate, Cereal biofortification, Ancient tuber oat grass, Grape diversity, Shade cacao, Ancient Central Asian ag, Diversity of knowledge, Edible canna
- Climate change and coconut plantations in India: Impacts and potential adaptation gains. Seems we don’t need to worry about coconut in India. Much. Overall.
- Biofortification of cereals to overcome hidden hunger. Need to understand mineral uptake and transport mechanisms better. But once we do…
- Evaluating prehistoric finds of Arrhenatherum elatius var. bulbosum in north-western and central Europe with an emphasis on the first Neolithic finds in Northern Germany. May just have had a ritual role.
- Genetic diversity and population structure assessed by SSR and SNP markers in a large germplasm collection of grape. High diversity despite duplication. Ecogeographic groupings within the cultivated material. Genetic core more genetically diverse than phenological core, though similarly phenotypically diverse. Information will revolutionize breeding. No, not really.
- Shade Tree Diversity, Cocoa Pest Damage, Yield Compensating Inputs and Farmers’ Net Returns in West Africa. Best thing is to have a diverse shade canopy, but under 50%.
- Agricultural production in the Central Asian mountains: Tuzusai, Kazakhstan (410‐150 b.c.). Yes, agriculture. Not just pastoralism.
- Diversity of Plant Knowledge as an Adaptive Asset: A Case Study with Standing Rock Elders. Differences among individuals may be just that, rather than “lack of cultural consensus” and may be adaptive as circumstances change.
- The Origin of Southeastern Asian Triploid Edible Canna (Canna discolor Lindl.) Revealed by Molecular Cytogenetical Study. C. indica var. indica and C. plurituberosa are the proud and newly-identified parents.