Showing posts with label bumblebee. Show all posts
Showing posts with label bumblebee. Show all posts

Wednesday, September 18, 2013

Seeing Food As A Commons Opens Up Creative New Possibilities

What would the world look like if we began to re-conceptualize food as a commons? Jose Luis Vivero Pol of the Centre for Philosophy of Law at Catholic University of Louvain in Belgium has done just that in a recent essay, “Food as a Commons: Reframing the Narrative of the Food System.”

The piece is impressive for daring to imagine how the world’s estimated 668 million hungry people might eat, and how all of us would become healthier, if we treated more elements of the food production and distribution system as commons. Instead of managing food as a private good that can only be produced and allocated through markets, re-conceptualizing food as a commons helps us imagine “a more sustainable, fairer and farmer-centered food system,” writes Vivero Pol.

One reason that the commons reframing is so useful is that it helps us see the ubiquity of enclosures in the food system. We can begin to see the galloping privatization of farmland, water, energy and seeds. We can see the concentration of various food sectors and the higher prices and loss of consumer sovereignty that comes from oligopoly control.

Enclosure is snatching shared resources from us and preventing us from managing them to maximize access and good nutrition. This is often known these days as “resource grabbing,” as companies and national governments race to seize as many abundant, cheap natural resources as they can on an international scale. This is one reason for the many pernicious enclosures of land commons in Africa and Latin America in recent years. There is a huge exodus from traditional and indigenous lands as China, Saudi Arabia, Korea, hedge funds and others buy up natural resources. These enclosures are moving us “from diversity to uniformity, from complexity to homoegeneity, and from richness to impoverishment,” writes Vivero Pol.

Strangely, “no one has really questioned the nature of food as a private good, produced by private inputs or privately harvested in enclosed areas of the world." Yet asking such a question helps us to see why massive hunger can persist with food abundance. The ethic of “no money, no food” means that only those with sufficient "consumer demand" are entitled to food. And even then, good health is no guarantee because the industrialized food model actively promotes expensive processed foods that are either non-nutritious or actively harmful to our health, but more lucrative to companies.

It helps to remember that many aspects of food are already considered commons, notes Vivero Pol. For example, fish stocks, unpatented genetic resources, wild fruits, recipes, agricultural knowledge and food safety regulations cannot be owned and can be harvested and used by anyone or by bounded commons.

Most cultivated food, however, is generally a private good, which means that food is vulnerable to being traded, hoarded and sold for competing uses (e.g., biofuels, animal feed) if it can fetch more money. In the classic economists’ formulation, food that is privatized and commoditized can be made “excludable” and “rival,” and this in practice tends to override any moral entitlements or human rights claims over food.

This means that private control has enormous public consequences. If people go hungry because they can’t afford food, they suffer diet-related illnesses such as diabetes and heart disease. Their psychological health suffers. They may die of malnutrition. This of course has diverse economic, political and social effects that an economist would consider an unfortunate but inexorable “externality” for which buyers and sellers have no responsibility. But it is quite obvious that such are the predictable outcomes of the commoditization of food.

So how might we convert privately owned food production into more of a public good? (Vivero Pol uses “public good” and “commons” interchangeably, while acknowledging that the former term is used in economic contexts and the latter in sociological contexts. But I would suggest that the two terms should be emphatically separated to make clear that the commons has generative capacities and social grounding that a "public good" does not.)

First, we should apply the commons template to our food production system and enumerate the harms caused by enclosures. As Vivero Pol writes, these harms include: “excessive commodification of food, with high pricing, laws and private enclosure as main barriers to fully enjoying those vital resources”; irregular private land titling, land grabbing and land evictions…”; “excessive patents of life, biopiracy and patented GMOs”; “the concentration in agri-food chains in a few transnationals”; and enclosure schemes such as “the Carbon Sequestration Initiative,” the REDD+ and the Payment for Environmental Services.”

Once we regard food as a commons, we can begin to see that everybody ought to have a human right to food. “Another implication would be that food should be kept out of trade agreements dealing with pure private goods,” writes Vivero Pol. We would also need to develop an international legal framework to regulate food as a global level, and guarantee everyone a minimum amount of food as a “universal Basic Food Entitlement.” More

 

Thursday, June 20, 2013

Dietary Fructose Causes Liver Damage in Animal Model

June 19, 2013 — The role of dietary fructose in the development of obesity and fatty liver diseases remains controversial, with previous studies indicating that the problems resulted from fructose and a diet too high in calories.

Fructose is the most commonly added sugar in the American diet

However, a new study conducted in an animal model at Wake Forest Baptist Medical Center showed that fructose rapidly caused liver damage even without weight gain. The researchers found that over the six-week study period liver damage more than doubled in the animals fed a high-fructose diet as compared to those in the control group.

The study is published in the June 19 online edition of the American Journal of Clinical Nutrition.

“Is a calorie a calorie? Are they all created equal? Based on this study, we would say not,” said Kylie Kavanagh, D.V.M., assistant professor of pathology-comparative medicine at Wake Forest Baptist and lead author of the study.

In a previous trial which is referenced in the current journal article, Kavanagh’s team studied monkeys who were allowed to eat as much as they wanted of low-fat food with added fructose for seven years, as compared to a control group fed a low-fructose, low-fat diet for the same time period. Not surprisingly, the animals allowed to eat as much as they wanted of the high-fructose diet gained 50 percent more weight than the control group. They developed diabetes at three times the rate of the control group and also developed hepatic steatosis, or non-alcoholic fatty liver disease.

The big question for the researchers was what caused the liver damage. Was it because the animals got fat from eating too much, or was it something else?

To answer that question, this study was designed to prevent weight gain. Ten middle-aged, normal weight monkeys who had never eaten fructose were divided into two groups based on comparable body shapes and waist circumference. Over six weeks, one group was fed a calorie-controlled diet consisting of 24 percent fructose, while the control group was fed a calorie-controlled diet with only a negligible amount of fructose, approximately 0.5 percent.

Both diets had the same amount of fat, carbohydrate and protein, but the sources were different, Kavanagh said. The high-fructose group’s diet was made from flour, butter, pork fat, eggs and fructose (the main ingredient in corn syrup), similar to what many people eat, while the control group’s diet was made from healthy complex carbohydrates and soy protein.

Every week the research team weighed both groups and measured their waist circumference, then adjusted the amount of food provided to prevent weight gain. At the end of the study, the researchers measured biomarkers of liver damage through blood samples and examined what type of bacteria was in the intestine through fecal samples and intestinal biopsies.

“What surprised us the most was how quickly the liver was affected and how extensive the damage was, especially without weight gain as a factor,” Kavanagh said. “Six weeks in monkeys is roughly equivalent to three months in humans.”

In the high-fructose group, the researchers found that the type of intestinal bacteria hadn’t changed, but that they were migrating to the liver more rapidly and causing damage there. It appears that something about the high fructose levels was causing the intestines to be less protective than normal, and consequently allowing the bacteria to leak out at a 30 percent higher rate, Kavanagh said.

One of the limitations of the study was that it only tested for fructose and not dextrose. Fructose and dextrose are simple sugars found naturally in plants.

“We studied fructose because it is the most commonly added sugar in the American diet, but based on our study findings, we can’t say conclusively that fructose caused the liver damage,” Kavanagh said. “What we can say is that high added sugars caused bacteria to exit the intestines, go into the blood stream and damage the liver. More


If you want to a kill a honeybee hive’s buzz, take all its honey away and feed the bees a steady diet of high-fructose corn syrup. Believe it or not, apiarists have been doing just that since the 1970s — feeding HFCS to their colonies as a replacement source of nourishment for the honey that gets taken away from them to be sold. And believe it or not, HFCS, which is bad for humans, is also bad for honeybees. It’s especially bad for those that are exposed to pesticides, which these days is a high proportion of them. Grist

 

Tuesday, April 9, 2013

Full Planet, Empty Plates: The New Geopolitics of Food Scarcity By Lester R Brown

Chapter 1. Food: The Weak Link

Over the next several weeks, the Earth Policy Institute will be releasing Full Planet, Empty Plates: The New Geopolitics of Food Scarcity by Lester R. Brown in installments. Look for a new chapter about every other week. Supporting data, videos, and slideshows are available for free download at www.earth-policy.org/books/fpep.

The world is in transition from an era of food abundance to one of scarcity. Over the last decade, world grain reserves have fallen by one third. World food prices have more than doubled, triggering a worldwide land rush and ushering in a new geopolitics of food. Food is the new oil. Land is the new gold. 1

 

The abrupt rise in world grain prices between 2007 and 2008 left more people hungry than at any time in history. It also spawned numerous food protests and riots. In Thailand, rice was so valuable that farmers took to guarding their ripened fields at night. In Egypt, fights in the long lines for state-subsidized bread led to six deaths. In poverty-stricken Haiti, days of rioting left five people dead and forced the Prime Minister to resign. In Mexico, the government was alarmed when huge crowds of tortilla protestors took to the streets. 2

After the doubling of world grain prices between 2007 and mid-2008, prices dropped somewhat during the recession, but this was short-lived. Three years later, high food prices helped fuel the Arab Spring. 3

We are entering a new era of rising food prices and spreading hunger. On the demand side of the food equation, population growth, rising affluence, and the conversion of food into fuel for cars are combining to raise consumption by record amounts. On the supply side, extreme soil erosion, growing water shortages, and the earth’s rising temperature are making it more difficult to expand production. Unless we can reverse such trends, food prices will continue to rise and hunger will continue to spread, eventually bringing down our social system. Can we reverse these trends in time? Or is food the weak link in our early twenty-first-century civilization, much as it was in so many of the earlier civilizations whose archeological sites we now study?

This tightening of world food supplies contrasts sharply with the last half of the twentieth century, when the dominant issues in agriculture were overproduction, huge grain surpluses, and access to markets by grain exporters. During that time, the world in effect had two reserves: large carryover stocks of grain (the amount in the bin when the new harvest begins) and a large area of cropland idled under U.S. farm programs to avoid overproduction. When the world harvest was good, the United States would idle more land. When the harvest was subpar, it would return land to production. The excess production capacity was used to maintain stability in world grain markets. The large stocks of grain cushioned world crop shortfalls. When India’s monsoon failed in 1965, for example, the United States shipped a fifth of its wheat harvest to India to avert a potentially massive famine. And because of abundant stocks, this had little effect on the world grain price. 4

When this period of food abundance began, the world had 2.5 billion people. Today it has 7 billion. From 1950 to 2000 there were occasional grain price spikes as a result of weather-induced events, such as a severe drought in Russia or an intense heat wave in the U.S. Midwest. But their effects on price were short-lived. Within a year or so things were back to normal. The combination of abundant stocks and idled cropland made this period one of the most food-secure in world history. But it was not to last. By 1986, steadily rising world demand for grain and unacceptably high budgetary costs led to a phasing out of the U.S. cropland set-aside program. 5

Today the United States has some land idled in its Conservation Reserve Program, but it targets land that is highly susceptible to erosion. The days of productive land ready to be quickly brought into production when needed are over. 6

Ever since agriculture began, carryover stocks of grain have been the most basic indicator of food security. The goal of farmers everywhere is to produce enough grain not just to make it to the next harvest but to do so with a comfortable margin. From 1986, when we lost the idled cropland buffer, through 2001, the annual world carryover stocks of grain averaged a comfortable 107 days of consumption. 7

This safety cushion was not to last either. After 2001, the carryover stocks of grain dropped sharply as world consumption exceeded production. From 2002 through 2011, they averaged only 74 days of consumption, a drop of one third. An unprecedented period of world food security has come to an end. 8

When world grain supplies tightened in 2007, there was no idled U.S. cropland to quickly return to production and there were no excess grain stocks to draw upon. Within two decades, the world had lost both of its safety cushions.

The world is now living from one year to the next, hoping always to produce enough to cover the growth in demand. Farmers everywhere are making an all-out effort to keep pace with the accelerated growth in demand, but they are having difficulty doing so.

Today the temptation for exporting countries to restrict exports in order to dampen domestic food price rises is greater than ever. With another big jump in grain prices, we could see a breakdown in the world food supply system. If countries give in to the temptation to restrict exports, some lower-income importing countries might not be able to import any grain at all. When could this happen? We are not talking about the distant future. It could be anytime.

Food shortages undermined earlier civilizations. The Sumerians and Mayans are just two of the many early civilizations that declined apparently because they moved onto an agricultural path that was environmentally unsustainable. For the Sumerians, rising salt levels in the soil as a result of a defect in their otherwise well-engineered irrigation system eventually brought down their food system and thus their civilization. For the Mayans, soil erosion was one of the keys to their downfall, as it was for so many other early civilizations. We, too, are on such a path. While the Sumerians suffered from rising salt levels in the soil, our modern-day agriculture is suffering from rising carbon dioxide levels in the atmosphere. And like the Mayans, we too are mismanaging our land and generating record losses of soil from erosion. 9

While the decline of early civilizations can be traced to one or possibly two environmental trends such as deforestation and soil erosion that undermined their food supply, we are now dealing with several. In addition to some of the most severe soil erosion in human history, we are also facing newer trends such as the depletion of aquifers, the plateauing of grain yields in the more agriculturally advanced countries, and rising temperature.

Against this backdrop, it is not surprising that the U.N. Food Price Index was at 201 in June 2012, twice the base level of 100 in 2002–04. (See Figure 1–1.) For most Americans, who spend on average 9 percent of their income on food, this is not a big deal. But for consumers who spend 50–70 percent of their income on food, a doubling of food prices is a serious matter. There is little latitude for them to offset the price rise simply by spending more. 10

Closely associated with the decline in stocks of grain and the rise in food prices is the spread of hunger. During the closing decades of the last century, the number of hungry people in the world was falling, dropping to a low of 792 million in 1997. After that it began to rise, climbing toward 1 billion. Unfortunately, if we continue with business as usual, the ranks of the hungry will continue to expand. 11

Those trapped between low incomes and the doubling of world food prices are forced to eat less. Most of the nearly 1 billion people who are chronically hungry and malnourished live in the Indian subcontinent or sub-Saharan Africa. There are pockets of hunger elsewhere, but these are the two remaining regions where hunger is pervasive. India, which now has a thriving economy, should be experiencing a steady decline in the number who are hungry and malnourished. But it is not, presumably because rising incomes among the poor cannot keep up with rising food prices. 12

In a hungry world, it is children who suffer the most. Rising world food prices are leaving millions of children dangerously hungry. Some are too weak to walk to school. Many are so nutritionally deprived that they are physically and mentally stunted. Neither we nor they will ever know what their full human potential could be. The costs of this will be visible for decades to come. 13

As a result of chronic hunger, 48 percent of all children in India are stunted physically and mentally. They are undersized, underweight, and likely to have IQs that are on average 10–15 points lower than those of well-nourished children. 1

In early 2012, Adam Nossiter wrote in the New York Times about the effect of high food prices in the Democratic Republic of the Congo, a country where hunger is common. Interviewing individual families in Kinshasa, he noted that three years ago everyone ate at least one meal a day. But today even families with both parents working often cannot afford to eat every day. It is now a given in many households that some days will be foodless, days when they will not eat at all. Selecting the days when they will not eat is a weekly routine. 15

The international charity Save the Children commissioned detailed surveys in five countries—India, Pakistan, Nigeria, Peru, and Bangladesh—to see how people were dealing with rising food prices. Among other things, they learned that 24 percent of families in India now have foodless days. For Nigeria, the comparable figure is 27 percent. For Peru it is 14 percent. Family size plays an important role in hunger. Almost one third of large families in all countries surveyed have foodless days. 16

Historically there have been two sources of grain demand growth. The oldest of these is population growth. Each year the world adds nearly 80 million people. Tonight there will be 219,000 people at the dinner table who were not there last night, many of them with empty plates. Tomorrow night there will be another 219,000 people. Relentless population growth is putting excessive pressure on local land and water resources in many countries, making it difficult if not impossible for farmers to keep pace. 17

The second source of growing demand for grain is consumers moving up the food chain. As incomes rose in industrial countries after World War II, people began to consume more grain-intensive livestock and poultry products: meat, milk, and eggs. Today, with incomes rising fast in emerging economies, there are at least 3 billion people moving up the food chain in the same way. The largest single concentration of these new meat eaters is in China, which now consumes twice as much meat as the United States does. 18

Now there is a third source of demand for grain: the automobile. Distillers use grain to produce fuel ethanol for cars, an activity that is concentrated in the United States and that has developed largely since 2005. In 2011, the United States harvested nearly 400 million tons of grain. Of this, 127 million tons (32 percent) went to ethanol distilleries. 19

With this massive industrial capacity to convert grain into automotive fuel, the price of grain is now more closely linked to the price of oil than ever before. As the price of oil rises, it becomes more profitable to convert grain into ethanol. This sets the stage for competition for the grain harvest between the affluent owners of the world’s 1 billion automobiles and the world’s poorest people. 20

Population growth, the rising consumption of livestock and poultry products, and the use of grain to fuel cars together raised the world growth in grain consumption from an average of 21 million tons per year from 1990 to 2005 to 45 million tons per year from 2005 to 2011. Almost overnight, the annual growth in grain consumption doubled. 21

At a time when the world’s farmers are facing this record growth in food demand, they continue to wrestle with the traditional threats to production such as soil erosion. But now they are also looking at three new challenges on the production front. One, aquifers are being depleted and irrigation wells are starting to go dry in 18 countries that together contain half the world’s people. Two, in some of the more agriculturally advanced countries, rice and wheat yield per acre, which have been rising steadily for several decades, are beginning to plateau. And three, the earth’s temperature is rising, threatening to disrupt world agriculture in scary ways. 22

The countries where water tables are falling and aquifers are being depleted include the big three grain producers—China, India, and the United States. World Bank data for India indicate that 175 million people are being fed with grain produced by overpumping. My own estimate for China is that 130 million people are being fed by overpumping. In the United States, the irrigated area is shrinking in leading agricultural states such as California and Texas as aquifers are depleted and irrigation water is diverted to cities. 23

Second, after several decades of rising grain yields, some of the more agriculturally advanced countries are hitting a glass ceiling, a limit that was not widely anticipated. Rice yields in Japan, which over a century ago became the first country to launch a sustained rise in land productivity, have not increased for 17 years. In both Japan and South Korea, yields have plateaued at just under 5 tons per hectare. (One hectare = 2.47 acres.) China’s rice yields, rising rapidly in recent decades, are now closely approaching those of Japan. If China cannot raise its rice yields above those in Japan, and it does not seem likely that it can, then a plateauing there too is imminent. 24

A similar situation exists with wheat yields. In France, Germany, and the United Kingdom—the three leading wheat producers in Europe—there has been no rise for more than a decade. Other advanced countries will soon be hitting their glass ceiling for grain yields. 25

The third new challenge confronting farmers is global warming. The massive burning of fossil fuels is increasing the level of carbon dioxide in the atmosphere, raising the earth’s temperature and disrupting climate. It is now in a state of flux. Historically when there was an extreme weather event—an intense heat wave or a drought—we knew it was temporary and that things would likely be back to normal by the next harvest. Now there is no “norm” to return to, leaving farmers facing a future fraught with risk. 26

High temperatures can lower crop yields. The widely used rule of thumb is that for each 1-degree-Celsius rise in temperature above the optimum during the growing season farmers can expect a 10-percent decline in grain yields. A historical study of the effect of temperature on corn and soybean yields in the United States found that a 1-degree-Celsius rise in temperature reduced grain yields 17 percent. Yet if the world continues with business as usual, failing to address the climate issue, the earth’s temperature during this century could easily rise by 6 degrees Celsius (11 degrees Fahrenheit). 27

In recent years, world carryover stocks of grain have been, only slightly above the 70 days that was considered a desirable minimum during the late twentieth century. Now stock levels must take into account the effect on harvests of higher temperatures, more extensive drought, and more intense heat waves. Although there is no easy way to precisely quantify the harvest effects of any of these climate-related threats, it is clear that any of them can shrink harvests, potentially creating chaos in the world grain market. To mitigate this risk, a stock reserve equal to 110 days of consumption would produce a much safer level of food security. 28

Although we talk about food price spikes, what we are more likely starting to see is a ratcheting upward of food prices. This process is likely to continue until we succeed in reversing some of the trends that are driving it. All of the threatening trends are of human origin, but whether we can reverse them remains to be seen.

As food supplies tighten, the geopolitics of food is fast overshadowing the geopolitics of oil. The first signs of trouble came in 2007, when world grain production fell behind demand. Grain and soybean prices started to climb, doubling by mid-2008. In response, many exporting countries tried to curb rising domestic food prices by restricting exports. Among them were Russia and Argentina, two leading wheat exporters. Viet Nam, the world’s number two rice exporter, banned exports entirely in the early months of 2008. Several other smaller grain suppliers also restricted exports. 29

With key suppliers restricting or banning exports, importing countries panicked. No longer able to rely on the market for grain, several countries tried to negotiate long-term grain supply agreements with exporting countries. The Philippines, a chronically rice-deficit country, attempted to negotiate a three-year agreement with Viet Nam for 1.5 million tons of rice per year. A delegation of Yemenis traveled to Australia with a similar goal in mind for wheat, but they had no luck. In a seller’s market, exporters were reluctant to make long-term commitments. 30

Fearing they might not be able to buy needed grain from the market, some of the more affluent countries, led by Saudi Arabia, China, and South Korea, then took the unusual step of buying or leasing land long term in other countries on which to grow food for themselves. These land acquisitions have since grown rapidly in number. Most of them are in Africa. Among the principal destinations for land hunters are Ethiopia, Sudan, and South Sudan, each of them countries where millions of people are being sustained with food donations from the U.N. World Food Programme. 31

As of mid-2012, hundreds of land acquisition deals had been negotiated or were under negotiation, some of them exceeding a million acres. A 2011 World Bank analysis of these “land grabs” reported that at least 140 million acres were involved—an area that exceeds the cropland devoted to corn and wheat combined in the United States. This onslaught of land acquisitions has become a land rush as governments, agribusiness firms, and private investors seek control of land wherever they can find it. Such acquisitions also typically involve water rights, meaning that land grabs potentially affect downstream countries as well. Any water extracted from the upper Nile River basin to irrigate newly planted crops in Ethiopia, Sudan, or South Sudan, for instance, will now not reach Egypt, upending the delicate water politics of the Nile by adding new countries that Egypt must compete with for water. 32

The potential for conflict is high. Many of the land deals have been made in secret, and much of the time the land involved was already being farmed by villagers when it was sold or leased. Often those already farming the land were neither consulted nor even informed of the new arrangements. And because there typically are no formal land titles in many developing-country villages, the farmers who lost their land have had little support for bringing their cases to court. 33

The bottom line is that it is becoming much more difficult for the world’s farmers to keep up with the world’s rapidly growing demand for grain. World grain stocks were drawn down a decade ago and we have not been able to rebuild them. If we cannot do so, we can expect that with the next poor harvest, food prices will soar, hunger will intensify, and food unrest will spread. We are entering a time of chronic food scarcity, one that is leading to intense competition for control of land and water resources—in short, a new geopolitics of food.

ENDNOTES:

1. U.S. Department of Agriculture (USDA), Production, Supply and Distribution, electronic database, at www.fas.usda.gov/psdonline, updated 12 June 2012; U.N. Food and Agriculture Organization (FAO), “FAO Food Price Index,” at www.fao.org/worldfoodsituation/wfs-home/foodpricesindex/en, updated 5 July 2012.

2. Chicago Board of Trade (CBOT) futures data from TradingCharts.com, Inc., “Oilseed & Grain Futures/Commodities Charts/Quotes,” at futures.tradingcharts.com/grains_oilseeds.html, viewed 5 June 2012; International Monetary Fund (IMF), “IMF Primary Commodity Prices,” at www.imf.org/external/np/res/commod/index.aspx, updated 6 July 2012; FAO, The State of Food Insecurity in the World 2011: How Does International Price Volatility Affect Domestic Economies and Food Security? (Rome: 2011), pp. 44–47; Ian MacKinnon, “Farmers Fall Prey to Rice Rustlers as Price of Staple Crop Rockets,” (London) Guardian, 31 March 2008; Ellen Knickermeyer, “In Egypt, Upper Crust Gets the Bread,” Washington Post, 5 April 2008; James Bone, “UN Peacekeeper Killed in Haiti Riots Over Food Prices,” (London) The Times, 14 April 2008; Ronald Buchanan, “Mexico Protest Prompts Food Price Assurance,” Financial Times, 1 February 2007.

3. CBOT futures data from TradingCharts.com, Inc., op. cit. note 2; IMF, op. cit. note 2; Christian Parenti, “The Price of Bread: A Measure of Political Stability,” Mother Jones, 19 July 2011.

4. Douglas E. Bowers, Wayne D. Rasmussen, and Gladys L. Baker, History of Agricultural Price-Support and Adjustment Program, 1933–1985 (Washington, DC: USDA, 1984); Lester R. Brown, Eco-Economy: Building an Economy for the Earth (New York: W. W. Norton & Company, 2001), pp. 145–46; historical grain prices from IMF, International Financial Statistics, electronic database, at www.imfstatistics.org/imf, various years.

5. U.N. Population Division, World Population Prospects: The 2010 Revision, electronic database, at esa.un.org/unpd/wpp/index.htm, updated 3 May 2011; historical grain prices from IMF, op. cit. note 4; USDA, op. cit. note 1; Bowers, Rasmussen, and Baker, op. cit. note 4.

6. Tadlock Cowan, Conservation Reserve Program: Status and Current Issues (Washington, DC: Congressional Research Service, 22 January 2010), p. 1.

7. USDA, op. cit. note 1.

8. Ibid.

9. Sandra Postel, Pillar of Sand (New York: W. W. Norton & Company, 1999), pp. 13–21; Michon Scott, “Mayan Mysteries,” in National Aeronautics and Space Administration (NASA), Earth Science Data and Information Systems Project, Supporting Earth Observing Science 2004 (Washington, DC: 2004), pp. 37–43; Jared Diamond, Collapse: How Societies Choose to Fail or Succeed (New York: Penguin Group, 2005).

10. Figure 1–1 from FAO, op. cit. note 1; food expenditures from USDA, “Table 7: Food Expenditures by Families and Individuals as a Share of Disposable Personal Income,” at www.ers.usda.gov/briefing/cpifoodandexpenditures/data/Expenditures_tables/table7.htm, updated 13 July 2011, from International Food Policy Research Institute (IFPRI), “Food Price Crisis and Financial Crisis Present Double Threat for Poor People,” press release (Washington, DC: 1 December 2008), and from Joachim von Braun, Food and Financial Crises: Implications for Agriculture and the Poor (Washington, DC: IFPRI, 2008), p. 5.

11. FAO, op. cit. note 2, pp. 44–47.

12. Ibid.; Organisation for Economic Co-operation and Development, OECD Economic Surveys: India 2011 (Paris: 2011).

13. Save the Children, A Life Free from Hunger: Tackling Child Malnutrition (London: 2012).

14. Ibid., p. iv; International Institute for Population Sciences (IIPS) and Macro International, National Family Health Survey (NFHS-3), 2005–06: India: Volume I (Mumbai, India: IIPS, 2007), p. 269; Susan Horton, “Opportunities for Investments in Nutrition in Low-income Asia,” Asian Development Review, vol. 17, nos. 1, 2 (1999), pp. 246–73.

15. Adam Nossiter, “For Congo Children, Food Today Means None Tomorrow,” New York Times, 2 January 2012; Deutsche Welthungerhilfe, IFPRI, and Concern Worldwide, 2011 Global Hunger Index: The Challenge of Hunger: Taming Price Spikes and Excessive Food Price Volatility (Bonn, Washington, DC; and Dublin: 2011), p. 17.

16. GlobeScan Inc., “Multi-country Nutrition Poll 2011 Topline Report,” as commissioned by Save the Children (London: 17 February 2012), pp. 5, 11, 12.

17. U.N. Population Division, op. cit. note 5.

18. FAO, The State of Food and Agriculture 2009 (Rome: 2009), p. 12; USDA, op. cit. note 1.

19. Lester R. Brown, “Exploding U.S. Grain Demand for Automotive Fuel Threatens World Food Security and Political Stability,” Plan B Update (Washington, DC: Earth Policy Institute, 3 November 2006); Lester R. Brown, “Distillery Demand for Grain to Fuel Cars Vastly Understated: World May Be Facing Highest Grain Prices in History,” Plan B Update (Washington, DC: Earth Policy Institute, 4 January 2007); F.O. Licht, World Ethanol and Biofuels Report, vol. 10, no. 16 (24 April 2012), p. 323; USDA, op. cit. note 1; USDA, Feed Grains Database, electronic database, at www.ers.usda.gov/data-products/feed-grains-database.aspx, downloaded 16 May 2012.

20. Ward’s Automotive Group, World Motor Vehicle Data 2011 (Southfield, MI: 2011).

21. USDA, op. cit. note 1.

22. Countries with water bubbles from Lester R. Brown, Plan B 2.0: Rescuing a Planet Under Stress and a Civilization in Trouble (New York: W. W. Norton & Company, 2006), p. 43; from Isam E. Amin et al., “Major Problems Affecting the Principal Aquifers in Lebanon,” in Geological Society of America, Abstracts with Programs, vol. 40, no. 6 (2008), p. 471; from Dale Lightfoot, Survey of Infiltration Karez in Northern Iraq: History and Current Status of Underground Aqueducts (Paris: UNESCO, September 2009); from “Afghanistan: Groundwater Overuse Could Cause Severe Water Shortage,” Integrated Regional Information Networks (IRIN) News, 14 September 2008; and from U.N. Population Division, op. cit. note 5.

23. USDA, op. cit. note 1; John Briscoe and R. P. S. Malik, India’s Water Economy: Bracing for a Turbulent Future (Washington, DC: World Bank, 2006); U.N. Population Division, op. cit. note 5; USDA, Census of Agriculture: Farm and Ranch Irrigation Survey (Washington, DC: various years).

24. Lester R. Brown, Increasing World Food Output: Problems and Prospects (Washington, DC: USDA, Economic Research Service (ERS), 1965), pp. 13–14; USDA, op. cit. note 1.

25. FAO, FAOSTAT, electronic database, at faostat.fao.org, updated 23 February 2012.

26. Intergovernmental Panel on Climate Change (IPCC), Climate Change 2007: The Physical Science Basis. Contribution of Working Group I to the Fourth Assessment Report of the Intergovernmental Panel on Climate Change (Cambridge, U.K.: Cambridge University Press, 2007), p. 2; IPCC, Managing the Risks of Extreme Events and Disasters to Advance Climate Change Adaptation. A Special Report of Working Groups I and II of the IPCC (Cambridge, U.K.: Cambridge University Press, 2012), pp. 111–14.

27. John E. Sheehy, International Rice Research Institute, e-mail to Janet Larsen, Earth Policy Institute, 1 October 2002; David Lobell and Gregory Asner, “Climate and Management Contributions to Recent Trends in U.S. Agricultural Yields,” Science, vol. 299, no. 5609 (14 February 2003), p. 1,032; IPCC, Climate Change 2007, op. cit. note 26, p. 749.

28. USDA, op. cit. note 1; Brian Wright, International Grain Reserves and Other Instruments to Address Volatility in Grain Markets, Working Paper presented at the World Grain Forum 2009, St. Petersburg , Russia, 6–7 June 2009, p. 22.

29. USDA, op. cit. note 1; CBOT futures data from TradingCharts.com, Inc., op. cit. note 2; IMF, op. cit. note 2; Financial Times, “In Depth: The Global Food Crisis,” at www.ft.com/foodprices, updated 6 May 2008; USDA, ERS, “U.S. Rice Industry: Background Statistics and Information,” at www.ers.usda.gov/news/ricecoverage.htm, updated 30 April 2008; FAO, “Soaring Food Prices: Facts, Perspectives, Impacts and Actions Required,” paper presented at High-level Conference on World Food Security: The Challenges of Climate Change and Bioenergy, Rome, 3–5 June 2008.

30. Office of the President, Republic of the Philippines, “RP Assured of 1.5 Million Metric Tons of Rice Supply from Vietnam Annually,” press release (Manila: 26 March 2008); USDA, op. cit. note 1; “Yemen to Seek Australian Food Cooperation,” WorldGrain.com, 19 May 2008; “Bahrain to Own Rice Farms in Thailand,” TradeArabia News Service, 30 May 2008; Javier Blas, “Nations Make Secret Deals Over Grain,” Financial Times, 10 April 2008.

31. GRAIN, Seized! The 2008 Land Grab for Food and Financial Security (Barcelona: October 2008); Joachim von Braun and Ruth Meinzen-Dick, “Land Grabbing” by Foreign Investors in Developing Countries, Policy Brief No. 13 (Washington, DC: IFPRI, April 2009); Klaus Deininger and Derek Byerlee, Rising Global Interest in Farmland: Can It Yield Sustainable and Equitable Benefits? (Washington, DC: World Bank, January 2011); George C. Schoneveld, The Anatomy of Large-scale Farmland Acquisitions in Sub-Saharan Africa, Working Paper 85 (Bogor, Indonesia: Center for International Forestry Research, 2011); Fred Pearce, The Land Grabbers: The New Fight over Who Owns the Earth (Boston: Beacon Press, 2012); U.N. World Food Programme, “Countries,” at www.wfp.org/countries, viewed 17 June 2012.

32. Deininger and Byerlee, op. cit. note 31, p. 51; USDA, op. cit. note 1; Karen Frenken and Jean-Marc Faurès, Irrigation Potential in Africa: A Basin Approach (Rome: FAO, 1997), at http://www.fao.org/docrep/w4347e/w4347e00.htm

33. Deininger and Byerlee, op. cit. note 31, p. 49; John Vidal, “Fears for the World’s Poor Countries as the Rich Grab Land to Grow Food,” (London) Guardian, 3 July 2009.

Copyright © 2012 Earth Policy Institute

 


 

Thursday, April 4, 2013

Mystery Malady Kills More Bees, Heightening Worry on Farms

BAKERSFIELD, Calif. — A mysterious malady that has been killing honeybees en masse for several years appears to have expanded drastically in the last year, commercial beekeepers say, wiping out 40 percent or even 50 percent of the hives needed to pollinate many of the nation’s fruits and vegetables.

A conclusive explanation so far has escaped scientists studying the ailment, colony collapse disorder, since it first surfaced around 2005. But beekeepers and some researchers say there is growing evidence that a powerful new class of pesticides known as neonicotinoids, incorporated into the plants themselves, could be an important factor.

The pesticide industry disputes that. But its representatives also say they are open to further studies to clarify what, if anything, is happening.

“They looked so healthy last spring,” said Bill Dahle, 50, who owns Big Sky Honey in Fairview, Mont. “We were so proud of them. Then, about the first of September, they started to fall on their face, to die like crazy. We’ve been doing this 30 years, and we’ve never experienced this kind of loss before.”

In a show of concern, the Environmental Protection Agency recently sent its acting assistant administrator for chemical safety and two top chemical experts here, to the San Joaquin Valley of California, for discussions.

In the valley, where 1.6 million hives of bees just finished pollinating an endless expanse of almond groves, commercial beekeepers who only recently were losing a third of their bees to the disorder say the past year has brought far greater losses.

The federal Agriculture Department is to issue its own assessment in May. But in an interview, the research leader at its Beltsville, Md., bee research laboratory, Jeff Pettis, said he was confident that the death rate would be “much higher than it’s ever been.”

Following a now-familiar pattern, bee deaths rose swiftly last autumn and dwindled as operators moved colonies to faraway farms for the pollination season. Beekeepers say the latest string of deaths has dealt them a heavy blow.

Bret Adee, who is an owner, with his father and brother, of Adee Honey Farms of South Dakota, the nation’s largest beekeeper, described mounting losses.

“We lost 42 percent over the winter. But by the time we came around to pollinate almonds, it was a 55 percent loss,” he said in an interview here this week.

“They looked beautiful in October,” Mr. Adee said, “and in December, they started falling apart, when it got cold.”

Mr. Dahle said he had planned to bring 13,000 beehives from Montana — 31 tractor-trailers full — to work the California almond groves. But by the start of pollination last month, only 3,000 healthy hives remained.

Annual bee losses of 5 percent to 10 percent once were the norm for beekeepers. But after colony collapse disorder surfaced around 2005, the losses approached one-third of all bees, despite beekeepers’ best efforts to ensure their health.

Nor is the impact limited to beekeepers. The Agriculture Department says a quarter of the American diet, from apples to cherries to watermelons to onions, depends on pollination by honeybees. Fewer bees means smaller harvests and higher food prices.

Almonds are a bellwether. Eighty percent of the nation’s almonds grow here, and 80 percent of those are exported, a multibillion-dollar crop crucial to California agriculture. Pollinating up to 800,000 acres, with at least two hives per acre, takes as many as two-thirds of all commercial hives.

This past winter’s die-off sent growers scrambling for enough hives to guarantee a harvest. Chris Moore, a beekeeper in Kountze, Tex., said he had planned to skip the groves after sickness killed 40 percent of his bees and left survivors weakened.

“But California was short, and I got a call in the middle of February that they were desperate for just about anything,” he said. So he sent two truckloads of hives that he normally would not have put to work.

Bee shortages pushed the cost to farmers of renting bees to $200 per hive at times, 20 percent above normal. That, too, may translate into higher prices for food.

Precisely why last year’s deaths were so great is unclear. Some blame drought in the Midwest, though Mr. Dahle lost nearly 80 percent of his bees despite excellent summer conditions. Others cite bee mites that have become increasingly resistant to pesticides. Still others blame viruses.

But many beekeepers suspect the biggest culprit is the growing soup of pesticides, fungicides and herbicides that are used to control pests.

While each substance has been certified, there has been less study of their combined effects. Nor, many critics say, have scientists sufficiently studied the impact of neonicotinoids, the nicotine-derived pesticide that European regulators implicate in bee deaths.

The explosive growth of neonicotinoids since 2005 has roughly tracked rising bee deaths.

Neonics, as farmers call them, are applied in smaller doses than older pesticides. They are systemic pesticides, often embedded in seeds so that the plant itself carries the chemical that kills insects that feed on it.

Older pesticides could kill bees and other beneficial insects. But while they quickly degraded — often in a matter of days — neonicotinoids persist for weeks and even months. Beekeepers worry that bees carry a summer’s worth of contaminated pollen to hives, where ensuing generations dine on a steady dose of pesticide that, eaten once or twice, might not be dangerous. More

Given that these useful insects polinate many of our food crops we really need to solve this issue as soon as possible. It may be that neonicotinoids need to be banned immediatly before the situation gets worse. We cannot afford to take chances with our food security. Editor

 

Wednesday, March 27, 2013

Neonicotinoid pesticides 'damage brains of bees'

Commonly used pesticides are damaging honey bee brains, studies suggest.

Scientists have found that two types of chemicals called neonicotinoids and coumaphos are interfering with the insect's ability to learn and remember.

Experiments revealed that exposure was also lowering brain activity, especially when the two pesticides were used in combination.

The research is detailed in two papers in Nature Communications and the Journal of Experimental Biology.

But a company that makes the substances said laboratory-based studies did not always apply to bees in the wild.

And another report, published by the Defra's Food and Environment Research Agency (Fera), concluded that there was no link between bee health and exposure to neonicotinoids.

The government agency carried out a study looking at bumblebees living on the edges of fields treated with the chemicals.

Falling numbers

Honey bees around the world are facing an uncertain future.

They have been hit with a host of diseases, losses of habitat, and in the US the mysterious Colony Collapse Disorder has caused numbers to plummet.

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It would imply that the bees are able to forage less effectively”

Dr Sally WilliamsonNewcastle University

Now researchers are asking whether pesticides are also playing a role in their decline.

To investigate, scientists looked at two common pesticides: neonicotinoids, which are used to control pests on oil seed rape and other crops, and a group of organophosphate chemicals called coumaphos, which are used to kill the Varroa mite, a parasite that attacks the honey bee.

Neonicotinoids are used more commonly in Europe, while coumaphos are more often employed in the United States.

Work carried out by the University of Dundee, in Scotland, revealed that if the pesticides were applied directly to the brains of the pollinators, they caused a loss of brain activity.

Dr Christopher Connolly said: "We found neonicotinoids cause an immediate hyper-activation - so an epileptic type activity - this was proceeded by neuronal inactivation, where the brain goes quiet and cannot communicate any more. The same effects occur when we used organophosphates.

"And if we used them together, the effect was additive, so they added to the toxicity: the effect was greater when both were present."

Another series of laboratory-based experiments, carried out at Newcastle University, examined the behaviour of the bees.

The researchers there found that bees exposed to both pesticides were unable to learn and then remember floral smells associated with a sweet nectar reward - a skill that is essential for bees in search of food.

Dr Sally Williamson said: "It would imply that the bees are able to forage less effectively, they are less able to find and learn and remember and then communicate to their hive mates what the good sources of pollen and nectar are."

'No threat'

She said that companies that are manufacturing the pesticides should take these findings into account when considering the safety of the chemicals.

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Decisions on the use of neonicotinoids must be based on sound scientific evidence”

Ian BoydDefra

She explained: "At the moment, the initial tests for bee toxicity are giving the bees an acute dose and then watching them to see if they die.

"But because bees do these complex learning tasks, they are very social animals and they have a complex behavioural repertoire, they don't need to be killed outright in order not to be affected."

The European Commission recently called for a temporary moratorium on the use of neonicotinoids after a report by the European Food Safety Authority concluded that they posed a high acute risk to pollinators.

But 14 out of the 27 EU nations - including the UK and Germany - opposed the ban, and the proposal has now been delayed.

Ian Boyd, chief scientist at Defra, said: "Decisions on the use of neonicotinoids must be based on sound scientific evidence." More