legumes
Matthew Miles Goodrich: Food prices are up. A "Bean New Deal" may be the answer
Montana lentil farmers go against the grain to build thriving organic business
Timeless Seeds’s ‘lentil underground’ continues to grow, producing nutrient-dense specialty crops while regenerating Montana’s soils and rural communities.
Beans may be the 'food of the future,' but U.S. farmers aren't planting enough
6 of the most sustainable meat alternatives
The industry is associated with poor working conditions and is damaging the climate. So what other high-protein options are there?
How a seed bank, almost lost in Syria's war, could help feed a warming planet.
A plant conservationist from Syria and his colleagues are safeguarding seeds that might be crucial when more parts of the world become as hot and arid as the Middle East.
TERBOL, Lebanon — Ali Shehadeh, a seed hunter, opened the folders with the greatest of care. Inside each was a carefully dried and pressed seed pod: a sweet clover from Egypt, a wild wheat found only in northern Syria, an ancient variety of bread wheat. He had thousands of these folders stacked neatly in a windowless office, a precious herbarium, containing seeds foraged from across the hot, arid and increasingly inhospitable region known as the Fertile Crescent, the birthplace of farming.
Mr. Shehadeh is a plant conservationist from Syria. He hunts for the genes contained in the seeds we plant today and what he calls their “wild relatives” from long ago. His goal is to safeguard those seeds that may be hardy enough to feed us in the future, when many more parts of the world could become as hot, arid and inhospitable as it is here. But searching for seeds that can endure the perils of a hotter planet has not been easy. It has thrown Mr. Shehadeh and his organization, the International Center for Agricultural Research in the Dry Areas, or Icarda, squarely at a messy intersection of food, weather and war.
Icarda, though it received no state funding, was once known as a darling of the Syrian government. Based in Aleppo, its research had helped to make Syria enviably self-sufficient in wheat production. But a drive to produce thirsty crops also drained Syria’s underground water over the years, and it was followed by a crippling drought that helped to fuel the protests that erupted into armed revolt against the government in 2011.
Icarda, in turn, became a casualty of the war. By 2014, the fighting drew closer to its headquarters in Aleppo and its sprawling field station in nearby Tal Hadya. Icarda’s trucks were stolen. Generators vanished. Most of the fat-tailed Awassi sheep, bred to produce more milk and require less water, were looted and eaten. Mr. Shehadeh and the other scientists eventually sent out what they could — including a few of the sheep — and fled, joining half the country’s population in exile.
And Icarda’s most vital project — a seed bank containing 155,000 varieties of the region’s main crops, a sort of agricultural archive of the Fertile Crescent — faced extinction.
But the researchers at Icarda had a backup copy. Beginning in 2008, long before the war, Icarda had begun to send seed samples — “accessions” as they are called — to the Svalbard Global Seed Vault, the so-called doomsday vault, burrowed into the side of a mountain on a Norwegian island above the Arctic Circle. It was standard procedure, in case anything happened.
War happened. In 2015, as Aleppo disintegrated, Icarda’s scientists borrowed some of the seeds they had stored in Svalbard and began building anew. This time, they spread out, setting up one seed bank in Morocco and another just across Syria’s border with Lebanon in this vast valley of cypress and grapes known as the Bekaa.
“We are doing our best to recreate everything we had in Aleppo,” Mr. Shehadeh said.
The Aleppo headquarters still contains the largest collection of seeds from across the region — 141,000 varieties of wheat, barley, lentils, fava and the like — though neither Mr. Shehadeh nor his colleagues know what shape it’s in. They haven’t been able to return.
Seed banks have always served as important repositories of biodiversity. But they’re even more crucial, said Tim Benton, a food security expert at the University of Leeds, at a time when the world needs crops that can adapt to the rapid onset of climate change.
“We have to grow considerably different things in considerably different ways,” Mr. Benton said. “Certainly for our prime crops, like wheat, the wild relatives are thought to be really important because of the genes that can be crossed back into the wheat lines we have in order to build resilience and adaptation to climate change.”
Especially important, Mr. Benton said, because they could easily vanish without protection.
How much Syria’s agricultural crisis was to blame for the outbreak of war is debatable. There is little debate, though, about the impact of global warming on the region, which seems certain to make agriculture here extremely precarious.
Temperatures have climbed by at least 0.2 degrees Celsius per decade across the Middle East from 1961 to 1990, and risen by close to 0.4 degrees Celsius in the period since then, according to Andrew Noble, who until recently was Icarda’s deputy director of research.
This summer, in already hot, dry countries like Iraq, temperatures shot up well past 50 degrees Celsius, about 120 degrees Fahrenheit, on some days. Droughts are more intense and more frequent. Where farmers rely entirely on the rains, as they do in most parts of the Middle East, the future of agriculture, Mr. Noble said bluntly, “is pretty bleak.”
This, Mr. Shehadeh says, is why he is obsessed with the wild relatives of the seeds that most farmers plant today. He eschews genetically modified seeds. He wants instead to tap the riches of those wild ancestors, which are often hardy and better adapted to harsh climates. “They’re the good stock,” he said.
He hunts for the genetic traits that he says will be most useful in the future: resistance to pests or blistering winds, or the ability to endure in intensely hot summers. He tries to select for those traits and breeds them into the next generation of seeds — in the very soil and air where they have always been grown.
Wheat is a staple of the Middle Eastern diet, and the Middle East is what Laura Wellesley, a researcher at the London think tank Chatham House, calls the “greatest wheat importing region in the world.” Syria was once the exception, but war has made wheat a potent weapon, and it, too, now imports wheat to feed its citizens who remain.
As summer draws to a close, Mr. Shehadeh’s greenhouses are nearly empty. In one, there are wild barley seeds, normally found in highland pastures, held together in small canvas pouches. In another, there are small pots of clover.
The seeds will soon be taken indoors, dried, bagged, and labeled. Some are for the collection here, contained in a series of walk-in cold storage rooms. Some are for farmers to try out in the fields. One full set of seeds is for Svalbard: Icarda is gradually putting back into the seed bank what it withdrew. In early September, Mr. Shehadeh carried 31 boxes of seeds in the latest shipment to Norway.
Icarda’s entire collection houses seeds that have sustained the people of the Middle East for centuries, including some 14,700 varieties of bread wheat, 32,000 varieties of barley, and nearly 16,000 varieties of chickpea, the key component of falafel. The Lebanon seed bank houses about 39,000 accessions, and Morocco, another 32,000. Most of it is backed up in Svalbard.
In Sudan, Icarda has introduced a wheat variety it hopes will be more resistant to drought and heat. It is breeding a fava bean variety that can withstand a parasitic weed and lentils that can mature in a short growing season.
That’s useful not just for the Middle East, Mr. Noble said. The hot, dry summers that are common to the Middle East may well become familiar to many other parts of the world. “The climates of the future will be similar to the climates we are experiencing,” he said.
Follow @NYTClimate on Twitter
BASF to harvest seeds, herbicide businesses from Bayer for $7 billion.
BASF has agreed to buy seed and herbicide businesses from Bayer for 5.9 billion euros in cash, as Bayer tries to convince competition authorities to approve its planned acquisition of Monsanto.
businesses from Bayer for $7 billion
Maria Sheahan
4 MIN READ
FRANKFURT (Reuters) - BASF has agreed to buy seed and herbicide businesses from Bayer for 5.9 billion euros ($7 billion) in cash, as Bayer tries to convince competition authorities to approve its planned acquisition of Monsanto.
The logo of Germany's largest drugmaker Bayer is pictured in Leverkusen April 26, 2014. REUTERS/Ina Fassbender/Files
BASF, the world’s third-largest maker of crop chemicals, has so far avoided seed assets and instead pursued research into plant characteristics such as drought tolerance, which it sells or licenses out to seed developers.
SPONSORED
But Bayer’s $66 billion deal to buy U.S. seeds group Monsanto, announced in September 2016, has created opportunities for rivals to snatch up assets that need to be sold to satisfy competition authorities.
Bayer had offered to sell assets worth around $2.5 billion. The European Commission said in August that the divestments offered by Bayer so far did not go far enough and started an in-depth investigation of the deal.
Bayer has to sell the LibertyLink-branded seeds and Liberty herbicide businesses because they compete with Monsanto’s Roundup weed killer and Roundup Ready seeds.
LibertyLink seeds, used by soy, cotton and canola growers, are one alternative to Roundup Ready seeds for farmers suffering from weeds that have developed resistance to the Roundup herbicide, also known as glyphosate.
The spread of Roundup-resistant weeds in North America has been a major driver behind Liberty sales.
“BASF’s decision to acquire seeds assets represents something of a change to its prior view on its needs to respond to recent industry consolidation in agriculture,” Morgan Stanley analysts said.
“Nonetheless, the proposed assets for acquisition are high margin and high growth and represent a sensible bolt-on addition,” they added.
The sale to BASF values the assets at around 15 times 2016 operating profit (EBITDA) of 385 million euros, which Bankhaus Lampe analyst Volker Braun said was “reasonable” considering the assets had to be sold anyway.
BASF will finance the acquisition through a combination of cash on hand, commercial paper and bonds. It expects the acquisition to add to its earnings by 2020.
A cyclist rides his bike past the entrance of the BASF plant in Schweizerhalle, Switzerland, July 7, 2009. REUTERS/Christian Hartmann/Files
Shares in Bayer rose 1.3 percent to the top of Germany’s blue-chip DAX index by 0845 GMT, while BASF fell 0.7 percent.
REGULATORY SCRUTINY
The businesses Bayer is selling to BASF generated 2016 sales of 1.3 billion euros.
While the Commission could block the deal, it has approved others, such as Dow’s tie-up with DuPont and ChemChina’s takeover of Syngenta - although only after securing big concessions.
Bayer said it continued to work with the authorities to close the Monsanto deal by early 2018.
As part of the asset sale to BASF, which is conditional upon the Monsanto acquisition going through, more than 1,800 staff, primarily in the United States, Germany, Brazil, Canada and Belgium, will transfer to BASF.
BASF has committed to maintaining all permanent positions, under similar conditions, for at least three years after the deal closes, Bayer said.
As part of the deal, BASF will acquire Bayer’s manufacturing sites for glufosinate-ammonium production and formulation in Germany, the United States, and Canada, seed breeding facilities in the Americas and Europe as well as trait research facilities in the United States and Europe.
Bayer said it would use the proceeds of the sale to partially refinance the planned acquisition of Monsanto. It would provide an update on expected synergies from the acquisition by the time the deal closes.
BofA Merrill Lynch and Credit Suisse acted as financial advisors to Bayer. Its legal advisors are Sullivan & Cromwell, Dentons, Cohen & Grigsby and Redeker, Sellner & Dahs.
($1 = 0.8442 euros)
Reporting by Maria Sheahan; Editing by Tom Pfeiffer and Keith Weir
Our Standards:The Thomson Reuters Trust Principles.
Fall armyworm arrives in Africa on the heels of climate change.
A rapidly spreading invasive pest now threatens crops across the continent.
Tobias Okwara is a farmer in Kayoro Parish in southeastern Uganda. In the midst of a long drought that began in May 2016, he and his neighbors got together to discuss what to do. Food was becoming scarce, and they hoped to recover quickly once the rains started again. They decided they would pool their meagre resources and plant a large communal field of maize. By spring 2017, the rains had finally returned, and their maize was thriving.
Then the fall armyworm appeared seemingly out of nowhere. Larvae of the nondescript gray moths hatched and ate their way through the field of young corn.
Endemic to North and South America, the fall armyworm was first spotted in January 2016 in Nigeria. No one knows for certain how it arrived on the African continent, but since its initial appearance the pest has spread to more than 28 countries, including South Africa, Burundi, Rwanda, Kenya, Ethiopia, the Democratic Republic of Congo, and most recently, Sudan and Mali. As it has spread, it has destroyed more than 740,000 acres of maize, the staple food for more than 200 million Africans.
The fall armyworm is closely related to the African armyworm, which is native to the continent. Both pests feed not just on corn, but also on other cereal crops like rice, sorghum, and wheat. Kenneth Wilson of Lancaster University has studied the African armyworm for 25 years and is now part of a working group with the United Nation’s Food and Agriculture Organization that is examining how to deal with the newly arrived pest.
Wilson says that while the African armyworm has long been a problem, it typically attacks one area and then moves on to another, making it only a sporadic threat to crop production in any given location. Not so with the fall armyworm. Once it has eaten its way through the cereal crops in a particular area, it sticks around to see what else it can eat. “If you’re a smallholder farmer who plants a little bit of maize, some sorghum, some beans, some tomatoes,” Wilson says, “all of those crops are potentially at risk from the fall armyworm.” It’s been known to feed on at least 80 plant species. In Uganda, over 40 percent of the crops are infested.
Uganda, like much of the rest of Africa, is already reeling from the effects of climate change.
Erratic weather patterns and intensifying cycles of drought and rain have taken a heavy toll on subsistence farmers like Okwara, who have no alternate food supply when it rains too much or too little and crops fail. The fall armyworm comes at a time when farmers throughout rural Africa are grappling with rising food insecurity because of climatic changes.
Climate change may also be a factor in the fall armyworm’s rapid spread across the continent. Wilson says that while it’s too early to know for sure about the new pest, 50 plus years of data on the native African armyworm show that the population explodes after periods of drought. He thinks it’s possible that the intensifying droughts brought on by climate change may favor both varieties of armyworm.
In South America, where the fall armyworm has plagued crops for decades, farmers have used a combination of genetically modified crops and pesticides to keep it mostly in check. But this is an expensive and ecologically damaging approach that Wilson does not think is viable for the majority of farmers in Africa. For one thing, he says, “we know that resistance is developing already both to GM crops and pesticides.”
Wilson specializes in biological pesticides, which are developed from bacteria, baculoviruses, and fungi that naturally prey on pests. He has already identified a virus that kills the African armyworm, but to his frustration it doesn’t kill the fall armyworm. Wilson is currently testing a range of biopesticides to see if there are any commercially available products that could work as a short term alternative to the chemical pesticides that African governments are relying on to address infestations.
As for the long term? Wilson points to parts of Central America, where the fall armyworm hasn’t been as big of a problem. “Farmers there say that it’s because they’ve got good integrated pest management practices. They fertilize the soil with organic fertilizer, they painstakingly search their crops for eggs, they’ve got mixed vegetation, like flowering plants that help to foster natural enemies.”
Such an effort will take time and significant outside investment. Fortunately, Wilson thinks countries outside of Africa are taking the threat seriously. It’s only a matter of time, he says, before the fall armyworm makes its way to Yemen and southern Europe. “For Europe and Asia, there should be an element of self-interest. It’s a global problem. It’s going to be everywhere.”