Sea buckthorn becoming a success in a land with no sea

The name of the game in Mongolian agriculture is diversification. And one of the things researchers at PSARTI, the Plant Science Research and Training Institute in Darkhan, and others are looking at is a shrubby berry called sea buckthorn (Hippophae rhamnoides) with some interesting nutritional properties. They have put together a small germplasm collection of local and introduced material and are doing agronomic trials of various kinds, trying to find the best varieties for different purposes. In fact, the plant has a pretty long and rich history in Mongolia:

It is said that Genghis Khan, the Mongol conqueror, who established one of the largest empires from China to Eastern Europe in the 13th century, relied on three treasures: well organized armies, strict discipline and Seabuckthorn. Seabuckthorn berries and seed oil made Genghis Khan’s soldiers stronger than his enemies.

There are already some products on the market. Like this delicious icecream, called Ice Doctor.

The natural history museum in downtown Ulaanbaatar has a display featuring a number of locally-made products — a couple of different oils and “globules” — along with a somewhat threadbare diorama.

I guess commercialization still has some way to go, but a start has been made. Another wild species with some commercial potential may be strawberries.

Wild Allium of various kinds is also sold in the market.

Genebanks shenebanks

Why bother building and maintaining huge robotic genebanks, I hear you ask? They’ll just take over the world and we’ll end up having to deal with the Terminator in a few years’ time, no? Well, as it happens there are two pieces today on the Worldwatch Institute’s blog which explain the reasons. Yassir Islam of HarvestPlus says that researchers are “scour[ing] seed banks to find seeds that contain the desired nutrients and then breed these into popular varieties using conventional methods.” And Cary Fowler of the Global Crop Diversity Trust turns to Ug99:

Where do you suppose scientists are looking for a way to deal with the disease? Just as Professor Borlaug did, they are screening hundreds of varieties of wheat to find one that shows resistance to the disease. Where would we turn if we did not have that diversity available in genebanks?

What more do you need? Oh yeah:

The UN Food and Agriculture Organization (FAO) estimates that a third of all genetic resources for food and agriculture have already been lost in the last 100 years.

Right. But at least it’s an improvement on 75%.

Nibbles: FAOSTAT, Drought, Seeds, Helianthus, Coffee trade, CePaCT, Figs, Old rice and new pigeonpea, Navajo tea, Cattle diversity, Diabetes, Art, Aurochs, Cocks

From fiasco to food systems

A contribution from Jessica Fanzo of Bioversity International. Many thanks, Jess!

As of 2010, one billion people are hungry, and 129 and 195 million children under five years of age are underweight and stunted respectively, with 90% of these children living in just 36 countries. Vitamin A and zinc deficiency alone contribute to over half a million child deaths annually. How could things have gone so wrong? Why is hunger and poor nutrition increasing or at least stagnating in much of the developing world?

Much of this falls on the nutrition and development community themselves. Although the prevention and treatment interventions highly endorsed in the 2008 Lancet series on maternal and child undernutrition provided some consensus among the global nutrition community, not all are comfortable with the current interventions being put forth to scale, which are predominantly health- and clinic-based interventions. To add more complications, the “how” to implement interventions from country to country in the developing world remains elusive. But then the international nutrition community has always been contentious.

The latest debate is coming from Michael Latham’s recent paper in World Nutrition, which is rebuking an often regarded “life saving” and cost effective intervention of giving children ages 6 to 59 months of age two high doses of vitamin A. Pioneering work by colleagues such as Professors Alfred Sommer and Keith West demonstrated very effectively that vitamin A can save children’s lives and prevent vitamin A caused blindness. And it certainly does, particularly in places where vitamin A deficiency has wreaked havoc on the lives of children. And we know that there are pockets where vitamin A deficiency still does.

Latham reported that what was thought of as a stop gap or short-term approach in preventing vitamin A deficiency, became THE only recommended approach to treat such deficiencies. He contests the evidence that the supplements reduce child morbidity: they not only have little effect on mortality, but can have adverse effects on respiratory infections, he says. Latham argued that the International Vitamin A Consultative Group and UNICEF pushed for the “magic bullet” capsule approach, in collaboration with industry, with little regard for other approaches, including plant-based foods.

So the debate continues. What PREVENTATIVE approaches should be undertaken? Prevention and treatment-based interventions, such as vitamin A supplementation, form a necessary and important dimension of addressing immediate needs and undernutrition. But more durable reductions in hunger must be accompanied by strategies that enhance food and livelihood security, including food production-based approaches aimed to enhance food availability and diet quality through local production and agricultural biodiversity.

There are food-focused interventions that can be integrated into the agriculture investments (largely staple crop food production) that could improve diet diversity and quality of diets rich in vitamin A sources, directly impacting the nutritional status of children. Promotion and usage of diverse homegardens and intercropping of plant foods rich in carotene, such as leafy greens and fruits such as mango, papaya, bananas, and pumpkin, along with plant oils, can provide rich sources of vitamin A for family diets, especially for complementary foods for young children. Livestock and small animal rearing can provide rich sources of vitamin A even if consumed a few times during the week. Introduction of nutrient-rich foods such as orange-fleshed sweet potato have been shown to increase vitamin A intake and serum retinol concentrations in young children in east Africa.

However, there is more than one way to skin a mango. The food-focused interventions are as essential as the vitamin A supplements as stop gaps in areas with documented vitamin A deficiency. But we need to go further. Recent calls for greater attention to hunger and undernutrition highlight the importance of integrating technical, well-coordinated interventions with broader strategies that address underlying causes of food insecurity – incorporating perspectives from agriculture, health, water and sanitation, infrastructure, gender and education. We need to think beyond “interventions” and more about systems approaches – in particular, food systems. How can food be better grown to improve the quantity and quality of the diet and of livelihoods. Food systems involve not only the land itself, but also water, natural resources, the ecosystem as a whole, and of course food, but all tethered to together with gender equity, better education, and legal reform and land tenure. Long-term investments in ensuring food systems are protected, conserved, rebuilt or promoted will be critically important to making real progress in preventing vitamin A deficiency, undernutrition and hunger, and ultimately the big culprit of them all, poverty.

Nibbles: Rhoades, Trigonella, Plant nutrition, Annals of Botany roundup, Vitamin A, Insect Week, yeast, Biocultural diversity online