Unidentified assailants threw an improvised explosive at a community center in La Florida district of Caracas in a pre-dawn attack. The attack comes on the heels of the ransacking of a Venezuelan synagogue.
Colombian President Alvaro Uribe restricted the power of the DAS secret police agency to carry out wiretaps in the wake of the surveillance scandal, as his government petitions Washington for more military aid.
Iraqi-born Dutch citizen Wesam al-Delaema pleaded guilty in the US District Court for the District of Columbia to a charge of conspiracy to murder US nationals outside the United States.
Lawyers for Canadian detainee Omar Khadr were blocked from attending a meeting with Khadr at Guantánamo Bay, as officials have launched an investigation into the ethics of the defense team.
Pakistan’s Supreme Court upheld a ruling that bars former prime minister Nawaz Sharif from holding office based on his conviction for “hijacking”—that is, attempting to thwart the 1999 military coup.
by Ted Trainer, Synthesis/Regeneration
In the last three decades considerable concern has emerged regarding limits to the future availability of energy in the quantities required by industrial-affluent societies. More recently Colin Campbell and others have argued that the energy source on which industrial societies are most dependent, petroleum, is more scarce than had previously been thought, and that supply will probably peak between 2005 and 2015. Some of these people argue that the world discovery rate is currently about 25% of the world use rate, and that non-conventional sources such as tar sands and shale oil will not make a significant difference to the situation. The USGS (2000) has recently arrived at a much higher estimate for ultimately recoverable petroleum, but this would only delay the peak by some 10 years.
If the discussion is expanded to take into account the energy likely to be required by the Third World, the situation becomes much more problematic. If the present world population were to consume energy at the rich-world per capita rate, world supply would have to be five times its present volume. World population is likely to reach 9.4 billion by 2070. If all these people were to consume fossil fuels at present rich-world per capita consumption rates, all probably recoverable conventional oil, gas, shale oil, uranium (through burner reactors), and coal (2,000 billion tonnes assumed as potentially recoverable), would be totally exhausted in about 20 years.
What is not well understood is the magnitude of the overshoot, the extent to which our present consumer society has exceeded sustainable levels of resource use and environmental impact. This is made clear by a glance at the greenhouse problem. The Intergovernmental Panel on Climate Change has given a range of emission rates and the associated levels that the carbon dioxide concentration in the atmosphere would rise to.
Perhaps the most quoted graph shows that if the concentration is to be stabilized at 550 parts per million (ppm), twice the pre-industrial level, emissions must be cut to 2.5 gigatonnes per year (Gt/y) by 2040 and to 0.2 Gt/y by about 2200. The present level from fossil fuel burning (i.e., not including land clearing) is over 6 Gt/y.
To keep the concentration below 450 ppm, emissions must be cut to about 1+ Gt/y by 2100, and to about 0.3 Gt/y by 2200. This target is much too high, because the atmospheric concentration is now at about 380 ppm and many disturbing climatic effects are becoming apparent.
If world population reaches 9+ billion, a global carbon use budget of one Gt would provide us all with about 150 kg of fossil fuel per year, which is around 2–3% of our present rich-world per capita use of fossil fuels (in GHGe [greenhouse gas equivalent] terms). Alternatively, only about 170 million people, 2.5% of the world’s present population, could live on the present rich-world per capita fossil fuel use of over 6 tonnes of fossil fuel per year.
These figures define the enormous magnitude of the sustainability problem we confront. Consumer-capitalist society has overshot viable levels of production and consumption by a huge amount. In effect, we have to give up fossil fuels altogether. That is, we have to live almost entirely on renewables. This book argues that these very high levels of production and consumption and therefore of energy use that we have in today’s consumer-capitalist society cannot be sustained by renewable sources of energy.
However, the foregoing numbers only define the magnitude of the present problem. This is nothing like the magnitude of the problem set when our commitment to growth is also taken into account. If 9.4 billion people are to have the “living standards” we in rich countries will have by 2070 given 3% economic growth, total world economic output every year would then be 60 times as great as it is now.
The question of whether we can run our society on renewable energy is therefore not about whether it can meet present demand—and this book concludes that it cannot do that—it is about whether it can meet the vastly increased demand that will be set by the pursuit of limitless increase in production and consumption.
There is an overwhelmingly powerful, never questioned, assumption that all these problems can and will be solved by moving to renewable energy sources. That is, it is generally believed that sources such as the sun and the wind can replace fossil fuels, providing the quantities of energy that consumer society will need, in the forms and at the times that they are needed. Surprisingly, almost no literature has explored whether this is possible. Unfortunately in the task of assessing the validity of this dominant assumption we have not been helped by the people who know most about the field, the renewable energy experts. They have a strong interest in boosting the potential of their pet technology and in not drawing attention to its weaknesses, difficulties and limits. Exaggerated, misleading, questionable and demonstrably false claims are often encountered in the promotional literature. Minor technical advances which might or might not become significant in the long run are announced as miraculous solutions. Doubts regarding the potential of renewable technologies are rarely if ever heard from within these fields.
This enthusiasm is understandable in view of the need to attract public support and research funding, but it means that contributions by those most familiar with these fields to the critical assessment of the potential and limits of renewables are quite rare. In developing the following review, considerable difficulty has been encountered from people hostile to having attention drawn to the weaknesses in their technologies and proposals (including threats of legal action if data they have provided in personal communications is used). Sources eager to provide information tend to dry up when they realize that limits are being explored. In addition, some of the crucial information will not be made public by the private firms developing the new systems. For example, it is almost impossible to get information on actual windmill output in relation to mean wind speeds at generating sites.
Unfortunately these difficulties have meant that at times it has not been possible to get access to information that would settle an issue and that must exist somewhere, and that at times one has to attempt an indirect estimation using whatever scraps of information one has been able to find. Ideally this study would have been carried out by someone more expert in renewable energy technology than I am, but it is understandable that the task has been left for an outsider to take up.
The two core problems
Renewable energy can meet various needs very well, or perfectly in many regions, such as heating and cooling space via simple “solar passive” designs whereby the structure captures and stores solar energy. However, renewables face formidable problems with respect to the two forms of energy which consumer society demands in enormous quantities, viz. electricity and liquid fuels. The fundamental issue in both cases has to do with the quantity of energy that can be delivered reliably, not dollar cost or “energy return.”
The situation is clearest with respect to liquid fuel (i.e., oil plus gas). There is no possibility of getting the quantity we take for granted, no matter what plausible assumptions are made regarding technical advances. There are only two possible sources of renewable liquid fuels, biomass and hydrogen. Even wild optimism about potential land and energy yields cannot provide the world’s future 9.4 billion people with more than perhaps 10% of the per capita liquid fuel consumption we now average in rich countries.
The situation concerning electricity is less clear cut. Some regions such as northeast Europe and the US will be able to derive a lot of electricity from the wind in winter (although the situation in summer is much more problematic). Yet even if the quantity of wind and solar electricity was not a problem, very difficult problems remain having to do with making these highly variable forms of energy available at the times when they are needed.
It is quite misleading to focus on the contribution a renewable source can make when it is merely augmenting supply largely derived from coal or nuclear sources. In that situation the significant problems set by the variability of renewables can be avoided. When the sun is not shining or the wind is not blowing, a little more coal can be burned. However, the problem this book is concerned with is the development of systems in which almost all energy used comes from renewables, and that means we would have to provide for large fluctuations in energy production, and thus for the storage of large quantities of energy. At this point in time there is no satisfactory solution in sight for this problem, on the scale that would be required.
Electricity is more or less impossible to store in very large quantities, so it has to be transformed into something that can be stored, such as hydrogen or pumped water, then transformed back to electricity when it is needed. However, these processes involve significant difficulties and costs. The best option, using electricity to pump water into high dams and then using its power to generate electricity when there is insufficient wind, involves the problem of limited hydro-capacity. Less than 10% of world electricity is generated by hydroelectric generating power, so this source cannot carry anywhere near the full load when there is little wind or sun.
In other words the biggest difficulties for solar and wind energy are set by their variability, especially the occurrence of night time and winter for solar, and the fact that winds can be down for days at a time. Many sites with quite satisfactory summer photo-voltaic or solar thermal performance are almost useless right through winter, especially in Europe. Winds tend to be low in summer and autumn. Even more problematic for wind are the large variations from day to day as gales and calms occur.
At present it seems that the variability of wind means that it probably cannot provide more than 25% of demand in the best wind regions, and perhaps no more than 10 to 15% in most good wind regions. Variability also seems to mean that if we build a lot of windmills we might also have to build almost as much coal or nuclear generating capacity to use when the winds are down.
The belief that the world will soon run on a “hydrogen economy” is very common. The first challenge to this faith-based assumption is the question of a source for the huge quantities of hydrogen that will he required. We are not likely to get enough energy from solar or wind sources to meet electricity demand, let alone have any left over to convert into hydrogen. But even if we had a lot of hydrogen, there are coercive arguments as to why we still could not have a hydrogen economy. These involve the difficulties posed by the physical nature of the very small and light hydrogen atom. Large volumes of hydrogen have to be pumped or stored before much energy arrives at the destination, and this consumes a lot of energy. In fact according to one estimate, pumping hydrogen from the Sahara to northern Europe would use up the equivalent of 65% of the energy pumped. Then there would be other losses and energy costs in moving the hydrogen into fuel tanks, and especially driving motors and generating electricity. Finally fuel cells are likely to deliver at most 50 to 60% of the energy that reaches them as hydrogen after all those pumping losses.
If the losses are combined, we find that to provide electricity or run vehicles from wind power via hydrogen would require 3 or 4 times as much wind-generated energy as there is in the petrol we are trying to replace. Similar losses would be involved in storing wind-generated power in hydrogen and using it to regenerate electricity later. The capital cost of such a generating system could be 12 to 15 times as much as that of the coal-fired generating system, not including the cost of the hydrogen production, pumping, storage and fuel cell systems.
This poses the question of what multiple of present electricity cost could be tolerated. Our economy might survive if electricity cost five times as much as it does now, but could it survive a 10-fold increase?
What about using solar energy in summer and autumn when the winds tend to be low, and wind in the winter when there’s little sun? This would mean constructing two very expensive systems in addition to the one we have now. We would have the wind system, the solar system and the coal-fired system for use when the other two are not working.
An unsustainable and unjust society
For forty years the argument has been accumulating that our resource-consuming and environmentally expensive way of life is grossly unsustainable, for many reasons besides energy difficulties. The rich-world per capita “footprint” is about ten times that which could ever be extended to all people. In addition our way of life is built on a grotesquely unjust global economy. We in rich countries could not have such high “living standards” if we were not taking most of the world’s resource wealth and condemning the Third World to a form of “development” which benefits us and our corporations but not the mass of Third World people.
Most people assume that although some of our resource and ecological problems are very serious, they can be solved by strategies like greater recycling efforts and the development of better technology. This “tech-fix” position is quite mistaken because the overshoot is already far too big for this to be possible. Reductions possibly of the order of 90% are required in rich-world per capita resource use.
All our problems will rapidly become worse if we continue to be obsessed with constantly increasing production and consumption, living standards and the GDP. Yet these are the fierce and supreme commitments of just about all governments, economists and people, and we have an economic system that cannot work without them.
A global consumer-capitalist society cannot be made sustainable or just. We cannot solve the big global problems such a society generates unless we face up to transition to a very different kind of society. Salvation cannot be achieved by changes within consumer-capitalist society—there must be change from it to very different social, economic, geographical, political and cultural systems.
It should be stressed that this book is not an argument against the development of renewable energy sources. For some forty years I have argued that renewable energy sources are ideal, that we must move to them, and that we can live very well on them—but not at the level of energy use we take for granted today in consumer-capitalist society. Far from being hostile to them, I have always relied on renewable energy forms. Our homestead has a wood fire for space heating, for decades our cooking was by wood stove (not at present), we pump our water by windmills, and for thirty years have had PV panels on the roof and no grid connection. In several previous publications I have argued that in a sustainable world we must live on renewables and that we can live well on them, but only after radical transition from consumer-capitalist society to “The Simpler Way.”
Apologies to “Green” people
Obviously this book’s message is not a pleasant one for people in the Green movement and I am acutely aware of the damage it would do the general environmental cause if it were taken seriously. Environmental activists have great difficulty getting the public in general to respond to environmental issues, even when they pose no significant challenges to the lifestyles and systems of consumer society.
Almost all environmental activists seem to be oblivious to the contradiction built into their thinking. They are in effect saying, “Please help us save the planet by calling for a switch to the use of renewable energy sources—which can sustain consumer society and will pose no threat to our obsession with affluent lifestyles and economic growth.” Even getting people to attend to such unthreatening messages is very difficult. So how much more difficult would it be to get people to listen to the claim that to save the environment we have to cut consumption by perhaps 90%, and give up fossil fuels—and renewables cannot substitute for them?
Given that I have been part of the Green movement for decades, I realize that green goals could be significantly undermined if the theme of this book became widely discussed, let alone generally accepted. The most immediate effect would be a surge in support for nuclear energy.
The Green movement in general is deeply flawed. It is for the most part only light green. Most environmental gurus and agencies never go beyond seeking reforms within consumer-capitalist society.
A sustainable and just society cannot be a consumer society, it cannot be driven by market forces, it must have relatively little international trade and no economic growth at all. It must be made up mostly of small local economies, and its driving values cannot be competition and acquisitiveness. Whether or not we are likely to achieve such a transition is not crucial here (and I am quite pessimistic about achieving it). The point is that when our “limits to growth” situation is understood, a sustainable and just society cannot be conceived in any other terms. Discussion of these themes is of the utmost importance, but few if any green agencies ever even mention them.
The “tech-fix optimists” who are to be found in plague proportions in the renewable energy field are open to the same criticism. If the position underlying this book is valid, then despite the indisputably desirable technologies all these people are developing, they are working for the devil. If it is the case that a sustainable and just world cannot be achieved without transition from consumer society to a Simpler Way of some kind, then this transition is being thwarted by those who reinforce the faith that technical advances will eliminate any need to even think about such a transition.
The Simpler Way could easily have an extremely low per capita rate of energy consumption, and footprint, based on local resources—but only if we undertake vast and radical change in economic, political, geographical and cultural systems
Ted Trainer teaches at the University of New South Wales in Kensington, NSW, Australia.
This piece first appeared in the Winter 2008 edition of the Green journal Synthesis/Regeneration.
Colin J. Campbell page at The Coming Oil Crisis
Analysis of “USGS World Petroleum Assessment 2000” at Peak Oil Debunked
Intergovernmental Panel on Climate Change
AGAINST THE CARBON CULTURE
by Michael Niman, ArtVoice, Buffalo, NY
World War 4 Report, September 2007
PEAK OIL PREVIEW
North Korea & Cuba Face the Post-Petrol Future
by Dale Jiajun Wen, Yes! Magazine
World War 4 Report, July 2006
From our Daily Report:
Climate change and economic growth: our readers write
World War 4 Report, Sept. 1, 2008
Reprinted by World War 4 Report, March 1, 2009
Reprinting permissible with attribution
by Rachel Smolker and Brian Tokar, Toward Freedom
In the coming weeks, the Obama administration is expected to release its plans to address the dual problems of global climate disruption and excessive dependence on foreign oil. Meanwhile, in the background, the debate among environmentalists over biofuels and their contribution to future energy needs continues to intensify.
Many mainstream greens actively support biofuels as a central element in an anticipated future mix of energy sources, but voices from the global South are often far more critical. They insist that fuels such as biodiesel, bioethanol and proposed “second generation” fuels be termed “agrofuels,” viewing their widespread use as a potential boon for global agribusiness corporations—with potentially devastating consequences for land-based peoples. This view is now gaining widespread support from groups in the US and Europe.
Last month, the Sierra Club and Worldwatch Institute attempted to sidestep these concerns with their new report, titled “Smart Choices for Biofuels.” They appear to have never even asked the more fundamental question “Are Biofuels a Smart Choice?” To this question, a growing number of environmental and human rights organizations are responding with a clear and resounding “no.”
A recent letter initiated by eleven US-based civil society groups highlights the rapidly growing literature demonstrating that biofuels/agrofuels are worsening climate change, driving deforestation, displacing rural smallholder farmers and indigenous peoples, depleting soil and water resources and more. Given the critical need to preserve and restore ecosystems, burning plant material for fuel is best viewed as a pathway to disaster.
While the “Smart Choices” report, like the Obama administration, claims that “advanced biofuels” and sustainability standards will resolve the problems, there is no way the earth can actually support a massive and ever-increasing new demand for plant biomass. Instead, a drastic reduction in society’s need for liquid fuels is an essential first step, through measures such as public transportation, energy efficiency, and reduction and relocalization of production and consumption.
The text of this, more critical, letter on agrofuels offers a glimpse at a far more realistic view of this issue than is offered by the Sierra Club/Worldwatch report:
As a diverse alliance of organizations concerned with climate change, agriculture and food policy, human rights and indigenous peoples rights and biodiversity protection, we (Global Justice Ecology Project, Institute for Social Ecology, Heartwood, Energy Justice Network, Grassroots International, Food First, Native Forest Council, Family Farm Defenders, ETC Group, Dogwood Alliance, Rainforest Action Network) issue this open letter in opposition to agrofuels (large scale industrial biofuels).
We strongly oppose the rapid and destructive expansion of agrofuels; the large-scale industrial production of transport fuels and other energy from plants (corn, sugar cane, oilseeds, trees, grasses, waste etc.). Agrofuels are a false solution and a dangerous distraction and they must be halted.
Agrofuels are a “false solution”:
Many prominent voices in the United States, including President-elect Obama, have voiced support for the large-scale production of agrofuels as a central strategy for solving the problems of energy supply and global warming. A growing body of scientific evidence, however, indicates that this is a tragic misconception and that continued pursuit of agrofuels will aggravate severely rather than resolve the multiple and dire consequences of the climate, energy, food, economic and ecological crises we face. Like other dirty and dangerous technologies and devices being promoted by industry to supposedly address climate change—including “clean coal,” carbon capture and storage [CCS], coal gasification, nuclear power, carbon offset markets, and ocean fertilization—agrofuels are a distracting “false solution” promoted for their potential to reap profits rather than their capacity to address problems effectively. 
Agrofuels worsen climate change and poverty:
A growing body of literature from all levels of society is revealing that, when all impacts are considered, agrofuels create more, not less, greenhouse gas emissions; deplete soil and water resources; drive destruction of forests and other biodiverse ecosystems; result in expanded use of genetically engineered crops, toxic pesticides, and herbicides; and consolidate corporate control over access to land. While claims are made that agrofuels will benefit the rural poor, in reality, indigenous and smallholder farmers are increasingly displaced. Industrial agriculture and the destruction of biodiversity, two leading causes of global warming, will be further facilitated by agrofuels. 
Next generation “cellulosic” fuels will not resolve the problems:
With recognition of the role of agrofuels in driving up food prices, there has been increasing attention to the social and ecological costs of corn and sugar cane derived ethanol. In response, there is now a massive push to develop non-food, so-called cellulosic fuels based on claims that these new feedstocks (grasses, trees, and “waste” products) will not compete with food production and can be grown on “idle and marginal” lands. The incoming Obama Administration is clearly positioning to advocate strongly on this platform.  Unfortunately, these claims do not hold up to scrutiny.
An enormous additional demand for trees, grasses and other plants, edible or inedible, will not avert the problem of land-use competition. Land that could be used for food crops or biodiversity conservation will be increasingly diverted into energy production. Demand for land for both agriculture and timber is already intense and escalating globally as water, soil and biodiversity dwindle and the climate becomes increasingly unstable. 
The scale of demand cannot be met sustainably:
Virtually all of the proposed cellulosic feedstocks (including dedicated energy crops such as perennial grasses and fast growing or genetically engineered trees, agricultural and forestry “wastes and residues,” municipal wastes etc.) present serious ecological concerns on the scale required to maintain biorefinery operations and significantly contribute to US energy demands. Furthermore, renewable fuels targets in the US mandate the use of 15 billion gallons of corn ethanol per year, an amount that requires one third of the nation’s corn crop, and an additional 21 billion gallons a year of “advanced” agrofuels, the definition of which opens the possibility that demand will be met with foreign sources. The massive new demand for agrofuels is escalating deforestation and resulting in conversion of biodiverse and carbon-rich native forests and grasslands into biologically barren and carbon-poor industrial tree plantations and other crop monocultures. 
Land use changes resulting from industrial agriculture, including widespread deforestation, are major causes of climate change. Recent research finds that old growth forests sequester far more carbon than was previously estimated, (i.e. Intergovernmental Panel on Climate Change underestimated carbon stocks for temperate old growth forests by two-thirds). This means that deforestation has been a much larger causal factor in global warming than initially thought, and that intact natural forests are critical for sequestering carbon. It is imperative therefore that we protect remaining forests, grasslands and other carbon-rich ecosystems. 
The widespread application of biotechnology for agrofuel production, including genetically engineered (GE) feedstock crops such as GE grasses and GE trees, and plans to use synthetic biology and other genetic engineering techniques to alter and construct microbes, is an unacceptable and dangerous risk. 
Sustainability criteria cannot address the problems with agrofuels because they are incapable of addressing many complex and often indirect ecological and social impacts. Neither can they be implemented under globally diverse ecological, social and political situations. Similar efforts to develop criteria for soy, palm oil and timber, for example, have proven vastly inadequate. Finally, these efforts are based on the fundamental and flawed assumption that such massive demands can and should be met.
Agrofuels are not a renewable energy source:
While plants do re-grow, the soils, nutrients, minerals and water they require are in limited supply. The diverse and complex ecosystems that native plants belong to are also limited and not easily regenerated. Subsidies and incentives for renewable fuels should be focused on truly renewable options, like wind and solar energy. Instead, currently in the US close to three-quarters of tax credits and two-thirds of federal subsidies for renewable energy are being wrongly invested in agrofuels. 
Agrofuels are a disaster for people:
As governments, investors and corporations recognize the increasing demand for and profitability of land for food, fiber and now energy, we are witnessing a veritable tidal wave of land grabbing on a global scale. This is disastrous for rural and indigenous peoples who are increasingly being evicted or displaced. If tariffs currently limiting international agrofuel trade are diminished or eliminated, social and ecological damages will escalate.
Social movements around the world, including the international peasant movement, Via Campesina, call for “food and energy sovereignty.” Via Campesina, along with the independent International Assessment of Agricultural Knowledge, Science and Technology for Development (IAASTD), a long-term independent assessment of agriculture involving over 400 scientists and diverse stakeholders, point to the key importance of a return to locally controlled, diverse, ecologically sensitive, and organic agriculture practices as vital to both addressing climate change and poverty. In demanding a halt to the insanity of agrofuel expansion, we stand in solidarity with peoples around the world who are resisting the loss and destruction of their lands, and with the wildlife and biodiversity being driven to extinction for corporate profit. 
Real solutions must be given a chance.
There are numerous better options for addressing climate change. These are generally proven, do not involve risky technologies, return control of resources to local inhabitants rather than profiting irresponsible corporations, and are more equitable. 
These include but are not limited to:
* A massive focus on improvements in energy efficiency, public transport and reduced levels of consumption within the United States (and other affluent countries);
* A rejection of industrial agribusiness and biotechnology and a return to locally adapted and community controlled diverse agricultural practices with the goal of feeding people, not automobiles, while conserving soil and water, maximizing carbon sequestration and protecting biodiversity;
* Repeal of the 36 billion gallon per year Renewable Fuel Standard biofuel target in the  Energy Independence and Security Act.
* Support for indigenous land rights and community stewardship initiatives as the major focus of efforts to preserve biodiverse ecosystems and the implementation of free and prior informed consent from indigenous peoples with respect to projects proposed on their ancestral lands and territories.
* Reducing demand for forest products and aggressively protecting remaining native forests and grasslands;
* Rejection of coal and nuclear technologies, which are inherently toxic and dangerous;
* Scaling up of decentralized and unequivocally renewable and cleaner wind and solar energies;
* Leaving fossil fuels in the ground, where they cannot contribute to climate change;
* Rejection of ineffective market-based approaches that commodify the atmosphere, biodiversity, and humanity itself.
See the complete list of 40 organizations that have signed on to this letter, along with detailed notes and more than 30 supporting references at the Global Justice Ecology Project To add your group’s signature to this letter, e-mail your organization’s name, contact person and website address to: email@example.com
 A recent comprehensive review of a variety of technologies proposed for addressing climate change, including wind, solar, nuclear, geothermal, tidal etc. found: “…cellulosic- and corn-E85 were ranked lowest overall and with respect to climate, air pollution, land use, wildlife damage, and chemical waste… biofuel options provide no certain benefit and the greatest negative impacts.” (MZ Jacobson, “Review of solutions to global warming, air pollution and energy security,” Energy and Environmental Science, December 2008)
Resources and information on false solutions involving coal, nuclear, incineration, biofuels, natural gas and more are available at Energy Justice Network. For information on ocean fertilization see ETC Group. For a review of climate geo-engineering technologies Biofuels Watch. [In contrast, the “Smart Choices for Biofuels” statement can be seen at the Worldwatch Institute.]
 Climate: According to recent studies, when all direct and indirect land use change emissions are accounted for, agrofuels produce from 17 to 420 times more greenhouse gas emissions than would be saved by avoided use of fossil fuel. Another study revealed that emissions of nitrous oxide from increasing fertilizer use for biofuel crops reduces or even cancels out gains from offsetting fossil fuel use with agrofuels. See:
Fargione, J., Hill, J., Tilman, D., Polasky, S., and Hawthorne, P., “Land clearing and the biofuel carbon debt,” Science, 319, 2008, pp. 1235-1238
Searchinger, T., Heimlich, R., Houghton, R. A., Fengxia Dong, Elobeid, A., Fabiosa, J., Tokgoz, S., Hayes, D., and Tun-Hsiang Yu, “Use of US croplands for biofuels increases greenhouse gases through emissions from land-use change,” Science, 319, 2008, pp. 1238-1240
P.J. Crutzen, A.R. Mosier, K.A. Smith, and W. Winiwarter, “N2O release from agro-biofuel production negates global warming reduction by replacing fossil fuels,” Atmospheric Chemistry and Physics 8(2): 389-95
People: Rural and indigenous peoples are increasingly displaced, often violently from their lands to make way for expanding industrial agriculture. Agrofuels are contributing to this.6,7 The global peasant farmers movement “Via Campesina” states: “small farmers feed the world, industrial agrofuels fuel hunger and poverty” (Jakarta, June 24, 2008: International Conference on Peasant Rights)
The UN FAO reported that food prices have pushed the number of starving to more than one billion, 14% of the human population. (“Nearly a Billion People Worldwide are Starving, UN Agency Warns”: Julian Borger and Juliette Jowitt. The Guardian, Dec 10 2008)
A leaked memo from the World Bank stated that 75% of the food price increase could be attributed to diversion of food crops into fuel production. (“Secret Report: Biofuels Caused Food Crisis: Internal World Bank study delivers blow to plant energy drive,” Guardian, July 3 2008. A. Chakrabortty)
The FAO stated that mandated targets may need to be reconsidered. Reports on the impacts of cane ethanol in Latin America paint a grim picture of oppression and destruction. (“Fuelling Destruction in Latin America: the real price of the drive for agrofuels,” Friends of the Earth International, September 2008)
 Obama, a long standing advocate of corn ethanol has stated that he will increase the renewable fuel standard from the current level at 36 bG/yr to 60 bG/yr. His cabinet appointments include 1) Tom Vilsack (Secretary of Agriculture), known for his advocacy on behalf of biotechnology and his close relationship with Monsanto and support for corn ethanol 2) Steven Chu (Secretary of Energy) who was instrumental in establishing agrofuels as the major focus of Lawrence Berkeley Labs (which he directs) and overseeing the establishment of the Energy Biosciences Institute, a $500 mil partnership involving UC Berkeley (a supposedly public educational institution) and BP, along with the Lawrence Berkeley labs, the goal of which is research and development of cellulosic fuel technologies. 3) Ken Salazar (Secretary of the Interior) has been a major proponent of flex-fuel car production and cellulosic fuel development. (“Obama, Vilsack and Salazar: The Ethanol Scammers’ Dream Team,” Energy Tribune, Dec. 29, 2008)
 As demands for food and bioenergy expand, enormous land grabbing is underway with countries, corporations and investors buying up large amounts of arable land in a scramble to gain access to dwindling and profitable resources. For example, Daewoo, a South Korean company is seeking to acquire a 99-year lease on a million hectares of Madagascar’s agricultural land, Kuwait is looking to acquire millions of hectares in Cambodia, and other investors are moving in on approximately 15 per cent of Laos’s agricultural land. (“Seized: The 2008 Land Grab for Food and Financial Security,” GRAIN)
Soil: In the US, some of the best agricultural soils occur in Iowa, but over the past century these have declined from an average of 18 to just 10 inches of depth over the past century due to erosion. Erosion rates exceeded soil regeneration rates on close to 30% of agricultural lands in the U.S. in 2001. This loss of topsoil and organic residues results in declining productivity. In an effort to stem the tide of erosion, the US Conservation Reserve Program was introduced in 1985 and paid farmers to plant lands sensitive to erosion with grass or tree cover protection and to use no-till farming, terracing and contour strip farming. These CRP lands are shrinking due to incentives to produce agrofuel feedstocks. Removal of “wastes and residues” from agricultural and forested lands for agrofuel production depletes soil organic matter and nutrients and increases erosion. (Wes Jackson and Wendell Berry, “A 50 year Farm Bill,” New York Times, Jan. 4 2009)
Water: Water resources in the US, including major irrigation sources such as the Oglalla aquifer and the Colorado river, are in decline. Agriculture is the largest use of freshwater, and biorefinery processes also require massive amounts of water. (“Water Implications of Biofuels Production in the United States,” October 2007 Report in Brief, at this site of The National Academies [PDF])
According to the International Water Management Institute (IWMI): freshwater usage worldwide has increased six-fold over the past 100 years, largely due to irrigation; water resources are dwindling; the price of water is predicted to double or triple over the coming two decades. Meanwhile, severe droughts are resulting in water shortages in Australia, India and South Central China. Droughts and ice melting at high altitudes are likely to result in declining water supplies in many regions of the world. (Peter McCornick, IWMI, “Demand For Biofuel Irrigation Worsens Global Water Crisis,” keynote address at “Linkages Between Energy and Water Management for Agriculture in Developing Countries,” Hyderabad, India, January 2007)
 According to biotechnology industry estimates, a moderately sized commercial-scale biorefinery using agricultural residues would require harvesting a minimum of 500,000 acres of cropland. Electricity production through the burning of wood is increasing rapidly and creating huge demands for trees. For example, Prenergy Power Limited, of London, England is planning a 350 megawatt power plant, which will be fueled by approximately 3 million tons per year of woodchips imported, in part from the US. Some bioenergy processes claim to utilize wastes and residues, but a recent industry market report stated: “…these operators, hungry for large volumes of wood, and frequently armed with government subsidies, are finding that the perceived overabundance of ‘waste wood’ in the nation’s forests is simply not there. As a result, the increased demand for more traditional forms of woodfiber has already triggered wood price spikes and cross-grade competition in the tightest markets.” Wood is under demand by expanding pulp and paper industry, timber products industry, rapidly growing chip and pellet production for heat and electricity, and now for liquid transportation fuels as well. This level of demand simply cannot be met sustainably. It is also driving the demand for faster-growing “designer” trees genetically engineered to enhance their ability to be transformed into energy. This in turn is threatening native forest ecosystems with genetic contamination. (RISI Wood Biomass Market Report)
 Deforestation in the Amazon is directly correlated with the market price of soy, a biofuel feedstock. When farmers in the US switched from soy to corn production to meet the demands for corn ethanol, the price of soy rose, and deforestation increased.18 The push for more land to grow energy crops has resulted in the elimination of set-aside lands in the EU and a reduction of CRP lands in the US The loss of these critical habitats is reducing pollinator and bird populations dramatically. (Kirchoff and J. Martin, “Americas Grasslands vanishing amid agricultural boom,” USA Today, April 25, 2008)
A recent long-term study of forest carbon in old growth temperate forest (AUS) found that carbon storage was far greater than previously assumed. The IPCC default values for example were one-third the value observed, highlighting the enormous impact of deforestation and the critical relevance to climate change of preserving forests. (“Green Carbon: The role of natural forests in carbon storage_Part 1. A green carbon account of Australia’s south-eastern Eucalypt forests, and policy implications,” Brendan G. Mackey, Heather Keith, Sandra L. Berry and David B. Lindenmayer, ANU Press, 2008)
 Agrofuels have become the major focus of biotechnology R&D. In addition to a suite of new GE feedstock developments, companies like Arborgen in the U.S. are developing GE tree varieties with 1) reduced lignin content 2) disease, insect and stress resistance, 3) fast growth, 4) cold tolerance, 5) modified oil content (jatropha and oil palm) and 6) sterility – all characteristics deemed profitable for agrofuel and pulp applications. Given that trees spread their pollen and seeds across huge distances and/or have many wild relatives in native forest ecosystems, cross contamination between GE trees and native trees is inevitable and entails unpredictable, potentially disastrous implications for forest ecosystems, wildlife and forest dependent human communities. (Petermann, A. and Tokar, B. 2007. Cellulosic fuels, GE trees and the contamination of native forests. In: R. Smolker, et al. The True Cost of Agrofuels: Impacts on Food, Forests, People and Climate,” Global Forest Coalition 2007 [PDF])
The newly emerging technique of “Synthetic Biology” is focused on developing microbes that can efficiently produce enzymes for fuel production. If genetic modification has raised biosafety concerns, those pale in comparison to the safety and ecological risks of synthetic organisms. Unlike earlier genetic engineering where genes are sourced from existing organisms, synthetic DNA sequences may have no known analogue in nature, and numerous pathways are combined. The consequences of contamination by such organisms are entirely unpredictable. Currently, the push for microbes for agrofuel production is driving the Synthetic Biology industry forward, making the ability to build dangerous and deadly microbes including bioweapons, cheaper, easier and harder to control. (Extreme Genetic Engineering: an introduction to synthetic biology. ETC Group)
 True renewables such as wind and solar are losing out in competition with agrofuels. Ethanol accounted for three-quarters of tax benefits and two-thirds of all federal subsidies provided for renewable energy sources in 2007. This amounted to $3 billion in tax credits in 2007, more than four times the $690 million made available to companies trying to expand all other forms of renewable energy, including solar, wind and geothermal power. It is estimated that by 2010, ethanol will cost taxpayers more than $5 billion a year—more than is spent on all US Department of Agriculture conservation programs to protect soil, water and wildlife habitat.
 Almost weekly new reports are made of abuses and violence in the context of land conflicts over the expansion of industrial monocultures and access to land and resources, and social movements working in resistance. Below are just a few of the more recent examples. See:
Civil Society Declaration at International Biofuels Conference in Sao Paolo, Brazil, November 2008 (PDF)
T. Phillips. Brazilian taskforce frees more than 4500 slaves after record number of raids on remote farms. The Guardian, January 3 2009
Tupinikim and Guarani peoples reconquer their lands, World Rainforest Movement bulletin: issue 122, September 2007
* The civil society organizations in Latin America who protested the International Biofuels Conference, demanding food and energy sovereignty;
* The recently freed “sugar slaves” working in Brazil’s ethanol industry;
* The indigenous peoples in the village of Suluk Bogkal, in Riau province in Sumatra who were fire bombed on December 18th 2008 when they resisted eviction from their lands to make way for a pulpwood plantation under Sinar Mas;
* The friends and families of Paraguayan smallholder farmers violently murdered when they resisted eviction to make way for the expansion of soy monoculture;
* The Tupinikim and Guarani in Brazil, who spent twenty years fighting to regain control of their ancestral lands which were taken over by the pulp industry for industrial eucalyptus plantations;
* The over one billion people now suffering from chronic undernourishment while food crops are diverted into fuel for automobiles;
* The diverse plants and animals moving precariously closer to extinction as their habitats are destroyed for conversion to agrofuel monocultures and industrial tree plantations
People’s access to land and the right to feed themselves is fundamental. Via Campesina along with many other social movements around the world call for food and energy sovereignty, not agrofuels. Numerous calls for moratoria have been made worldwide, including one from organizations in the US. (Agrofuel Moratorium Campaign, Biofuel Watch)
 A growing global alliance of individuals and organizations is demanding real solutions to climate change based on principles of justice and equity. This position is based on the understanding that the root causes of climate change are the same as the root causes of poverty and injustice. One cannot be addressed without the other and doing so is the only effective path towards a sustainable future. See:
“Radical New Agenda Needed to Achieve Climate Justice: Climate Justice Now!” Poznan, December 2008
Patrick Bond, “From False to Real Solutions for Climate Change,” Monthly Review. June 1, 2008
Rachel Smolker is an independent research scientist, based in Hinesburg, Vermont. Brian Tokar is the director of the Institute for Social Ecology, based in Plainfield, Vermont.
This piece first appeared Feb. 25, in slightly different form, on Toward Freedom.
THE REAL SCOOP ON BIOFUELS
“Green Energy” Panacea or Just the Latest Hype?
by Brian Tokar, World War 4 Report, December 2006
From our Daily Report:
Obama USDA pick another “biofuel” booster
World War 4 Report, Dec. 18, 2008
Reprinted by World War 4 Report, March 1, 2009
Reprinting permissible with attribution
Some 50,000 US troops likely to remain in Iraq after President Obama fulfills his pledge to “withdraw combat troops” would still have a combat role, unnamed Pentagon officials told the New York Times.
The Special Court for Sierra Leone found three former RUF guerrilla leaders guilty of war crimes and crimes against humanity for their roles in the country’s civil war.
Former Serbian President Milan Milutinovic was acquitted of war crimes charges by the International Criminal Tribunal for the former Yugoslavia—although five co-defendants were convicted.