Lake Turkana Wind Power is the largest private investment in Kenya’s history. Danish and international companies and investors have already sunk millions of euros into the project. But they now await a court decision that will determine whether the land on which the turbines will be built was illegally acquired.
Most communities in Lake Turkana approve of the wind power project, but there are claims from the Turkana, Samburu, Rendile and El Molo that the consortium behind the project failed to carry out consultations prior to acquiring land in 2007. The consortium, meanwhile, claims that 3 out of 4 tribes in the project are not Indigenous Peoples. The consortium also denies any wrongdoing, claiming that the plaintiffs in the ongoing court case do not represent the Turkana, Samburu, Rendile and El Molo.
The independent media and research center Danwatch recently visited Northern Kenya to get a closer look at the impacts of Kenya’s largest-ever private investment.
Ten things environmentalists need to know about renewable energy:
1. Solar panels and wind turbines aren’t made out of nothing. They are made out of metals, plastics, chemicals. These products have been mined out of the ground, transported, processed, manufactured. Each stage leaves behind a trail of devastation: habitat destruction, water contamination, colonization, toxic waste, slave labour, greenhouse gas emissions, wars, and corporate profits. Renewables can never replace fossil fuel infrastructure, as they are entirely dependent on it for their existence.
2. The majority of electricity that is generated by renewables is used in manufacturing, mining, and other industries that are destroying the planet. Even if the generation of electricity were harmless, the consumption certainly isn’t. Every electrical device, in the process of production, leaves behind the same trail of devastation. Living communities—forests, rivers, oceans—become dead commodities.
3. The aim of converting from conventional power generation to renewables is to maintain the very system that is killing the living world, killing us all, at a rate of 200 species per day. Taking carbon emissions out of the equation doesn’t make it sustainable. This system needs not to be sustained, but stopped.
4. Humans, and all living beings, get our energy from plants and animals. Only the industrial system needs electricity to survive, and food and habitat for everyone are being sacrificed to feed it. Farmland and forests are being taken over, not just by the infrastructure itself, but by the mines, processing and waste dumping that it entails. Ensuring energy security for industry requires undermining energy security for living beings (that’s us).
5. Wind turbines and solar panels generate little, if any, net energy (energy returned on energy invested). The amount of energy used in the mining, manufacturing, research and development, transport, installation, maintenance and disposal of these technologies is almost as much—or in some cases more than—they ever produce. Renewables have been described as a laundering scheme: dirty energy goes in, clean energy comes out. (Although this is really beside the point, as no matter how much energy they generate, it doesn’t justify the destruction of the living world.)
6. Renewable energy subsidies take taxpayer money and give it directly to corporations. Investing in renewables is highly profitable. General Electric, BP, Samsung, and Mitsubishi all profit from renewables, and invest these profits in their other business activities. When environmentalists accept the word of corporations on what is good for the environment, something has gone seriously wrong.
7. More renewables doesn’t mean less conventional power, or less carbon emissions. It just means more power is being generated overall. Very few coal and gas plants have been taken off line as a result of renewables.
8. Only 20 per cent of energy used globally is in the form of electricity. The rest is oil and gas. Even if all the world’s electricity could be produced without carbon emissions (which it can’t), it would only reduce total emissions by 20 per cent. And even that would have little impact, as the amount of energy being used globally is increasing exponentially.
9. Solar panels and wind turbines last around 20-30 years, then need to be disposed of and replaced. The production process, of extracting, polluting, and exploiting, is not something that happens once, but is continuous and expanding.
10. The emissions reductions that renewables intend to achieve could be easily accomplished by improving the efficiency of existing coal plants, at a much lower cost. Given that coal or gas plants are required for back-up of all intermittent renewables, this shows that the whole renewables industry is nothing but an exercise in profiteering with no benefits for anyone other than the investors.
Deep Green Resistance stands in sympathy and solidarity with Don Celestino Bartolo and the farmers and residents of the municipality of Juchitan de Zaragoza as well as all those who live on the Isthmus of Tehuantepec, as they suffer and resist Gas Natural Fenosa’s Biío Hioxo Wind Energy project. Like most large infrastructure projects, the Biío Hioxo Energy project ignores how indigenous communities use the land for food, sacred places, and community integrity. This project harms the land by destroying soils, forests, and natural spaces, as well as with noise and visual pollution.
Projects like this threaten the way of life of the residents of Juchitan de Zaragoza and the Isthmus of Tehuantepec, and destroy the land. It is typical of the destructiveness of civilization and the unbridled greed of capitalism. Biío Hioxo Energy also serves as an object lesson in the folly of green technology, and deserves our condemnation and resistance.
Indigenous peoples have always been at the forefront of the struggle against the dominant culture’s ecocidal violence. We are heartened by the strength of the people of Tehuantepec, who are resisting with strength and desperation. DGR offers its support and encouragement to those on the front lines of the fight to save the planet, and despite our lack of experience and membership in the region we will support the struggle in whatever way we can.
“We can’t sow our fields, which they have rented for next to nothing. What good do we get out of it?” Guadalupe Ramírez complained about wind farms operating in the southern Mexican state of Oaxaca.
Ramírez said, “the governments play favourites with big business; our land produces more than what the companies are offering … They said they would come to help us, but that’s a lie,” this 62-year-old Zapotec Indian told IPS when she and other campesinos came to Mexico City from the municipality of Unión Hidalgo, 560 kilometres to the south, to protest the situation.
The Piedra Larga I wind farm, which has been operating in the town since October 2012, comprises 145 wind turbines producing 90 MW of power. It is the property of Desarrollos Eólicos Mexicanos (DEMEX), a subsidiary of the Spanish company Renovalia Energy and the private U.S. investment firm First Reserve.
In 2007 DEMEX approached local people and began to sign rental contracts with members of the “ejido” or communal land, treating them as if they were independent smallholders and not communal rights holders, and setting an average monthly rental of 20 dollars a hectare. The campesinos of Unión Hidalgo farm between three and four hectares each.
But in other municipalities wind energy companies are paying up to 80 dollars a hectare. Moreover, land tenure in Unión Hidalgo is collective, and all decisions pertaining to ejido land have to be made by the entire assembly of the ejido members, so the contracts signed are not actually valid – a fact that at first was not noticed by those who rented out their land.
Ejido members farming communal land in the municipality accuse DEMEX of tricking them by not explaining the clauses of contracts that were written in Spanish rather than Zapotec, of not calling the obligatory assembly of the ejido members, of polluting their land and of denying them freedom of movement on their land.
In 2014 the company will begin operating the Piedra Larga II wind farm, occupying 300 hectares in Unión Hidalgo, which has a population of 13,970, mainly native Zapotec people. A Resistance Committee against the Wind Farm Project has been created, several of whose members came to the capital to protest on Wednesday Jun. 12.
Their protest shows the increasing discontent of Mexican communities with wind energy projects because of their economic, environmental and social consequences. The future of the sector is turning cloudy, just when Global Wind Day was celebrated on Saturday Jun. 15.
The energy ministry estimated on Wednesday Jun. 12 that wind energy generates 1,304 MW in Mexico, followed by geothermal power with 812 MW, biomass and biogas with 581 MW and mini-hydropower projects with 450 MW. Without including large hydroelectric power stations, renewable energy sources contribute five percent of the total national energy supply, and the proportion is increasing.
The strong winds in the isthmus of Tehuantepec, the narrowest part of Mexico which includes parts of the southern states of Oaxaca, Tabasco, Veracruz and Chiapas, have made it an epicentre for several wind farm projects. Land ownership in this area is primarily collective and communities are governed by traditional custom.
To date wind energy exploitation occupies 11,000 hectares nationwide, with investments since 2007 totalling five billion dollars, according to the Mexican Wind Energy Association (AMDEE).
The energy reform of 2008 allows individuals and businesses to generate their own electricity from renewable sources, supply it to the national grid and be rewarded with preferential feed-in tariffs.
As a result, many companies are buying cheap wind energy to become self-sufficient in energy and reduce their electricity bills. However, critics of this strategy argue that the communities where wind parks are installed have the least to gain.
“There is a pattern of human rights violations in the communities. Wind energy companies advertise themselves well, offering money and jobs, but the jobs are temporary. The companies’ actions are not transparent, nor do they meet established standards,” Alejandra Ancheita, the head of Proyecto de Derechos Económicos, Sociales y Culturales (ProDESC – Economic, Social and Cultural Rights Project), told IPS.
Following the wind energy boom in Oaxaca, activists fear the negative aspects of the model will be repeated in wind farm projects in other states.
“They have brought no benefits. The energy companies violate collective property rights, agrarian laws and the traditional laws of indigenous peoples,” Bettina Cruz, the founder of the Assembly of Indigenous Peoples of the Isthmus of Tehuantepec in Defence of Land and Territory (APIIDTT), told IPS.
DEMEX has denied the allegations against it, saying that the contracts are valid and that it has the necessary authorisations for construction and operation of the wind park.
“Conditions in the communities have not improved,” said Benjamin Cokelet, head of the Project on Organising, Development, Education and Research (PODER), an NGO for corporate accountability. In his view, the companies may be in violation of international conventions.
In the towns of San Dionisio del Mar, Álvaro Obregón and San Vicente, close to Unión Hidalgo, local people have blocked similar wind energy projects through direct protests and legal appeals.
In the towns of San Dionisio del Mar, Álvaro Obregón and San Vicente, close to Unión Hidalgo, local people have blocked similar wind energy projects through direct protests and legal appeals.
For instance, in San Dionisio, the Spanish company Mareña Renovables is planning a 392 MW wind park with 75 million dollars of financing from the Inter-American Development Bank. But the project is at a standstill due to legal action.
On Tuesday Jun. 11 the Unión Hidalgo Resistance Committee presented a lawsuit to the agrarian court, which deals with land rights, seeking to invalidate the contracts that have been signed and suspend the working of the wind farm and its expansion, with immediate effect.
In April, they presented a complaint to PROFEPA, Mexico’s federal agency for environmental protection, against pollution caused by the wind park.
“It’s not right for the government to negotiate with the companies over our land. We have been badly off ever since they arrived. They say it’s clean energy, but that’s not true: lubricating oil from the turbines is contaminating the soil and the groundwater, the blades are killing birds, and the turbines are noisy,” Esteban López, a 55-year-old Zapotec Indian who grows maize and sorghum, told IPS.
The three private banks financing the project are signatories to the Equator Principles, a set of voluntary guidelines for assessing social and environmental risk in credits, adhered to by more than 70 international financial institutions since 2003.
Cokelet said PODER is considering lodging a grievance under the Equator Principles over irregularities in Unión Hidalgo.
“We are not smallholders, we are community farmers with collective tenure, and the company ignored that. They didn’t explain what they were going to do on our land. The contracts are unfair and one-sided,” Ramírez said.
By 2020, Mexico expects to generate some 12,000 MW from wind power.
While global warming is a topic of conversation and news coverage every day around the world, the basic raw materials that drive the global economy are rarely discussed as being involved. But these materials play a key role in global environmental issues.
Where do plastics come from? How is paint made? How do simple electronics, like land line telephones, come to be? How does the electric grid itself come to be? And in a world that is being wracked by warming, how do these basic industrial technologies impact the climate?
This will be the first article in a series exploring these questions and more. This inaugural piece will focus on steel: a material so ubiquitous it is nearly invisible, a material that was the foundation of the industrial revolution, a material that even today is used a measure for the health of the global economy.
The foundation of an economy
Steel, alongside oil, is the basic raw material of the global industrial economy. The material is widely used in construction and almost all other industries. The amount of steel being consumed per capita is often used as a measure of economic progress: financial firms like the World Bank consider 700 pounds of steel consumption per person per year a basic measure of the economic development of a nation.
More than 1.3 billion tons of steel is produced every year.
What is steel made of?
Steel is an alloy composed mainly of iron mixed with smaller portions other material, most often carbon, but sometimes manganese, chromium, vanadium, or tungsten. These other substances act as hardening agents to strengthen the steel.
The first step in our journey along the path of steel production is the extraction of the basic materials. The largest iron ore mine in the world is the Carajás Mine in Northern Brazil. The facility produces more than 90 million tons of iron ore every year. The ore is transported nearly 900km (in the largest train in the world) along a single train track to the port city of Sao Luis.
The train line, called EFC, was shut down in October of 2012 by indigenous inhabitants of the region protesting a planned expansion of the mine.
The environmental impacts of the mine are numerous. Firstly, to reach the ore, the rainforest must be cleared. More than 6,000 square kilometers of forest around the Carajas mine are clearcut every year for charcoal alone. More forest is removed for direct mining operations. Mercury is used in the mining process, and contaminates 90 percent of fish downstream of the mine.
In addition to the environmental impacts, iron ore mining in the Amazon has displaced tens of thousands of indigenous people, decimated newly-contacted tribes through the spread of infectious diseases, and flooded remote areas with thousands of workers, networks of roads, and all the associated impacts.
Poverty, social conflict, and environmental devastation have been the wages of mining. As the World Wildlife Federation has noted, “Mining is one of the dirtiest industrial activities on the planet, in terms of both its immediate environmental impacts and its CO2 emissions.”
Smelting and steel production
Once the raw materials for steel production are gathered, they must be combined. The first step is the smelting of iron ore in a blast furnace. The heat to melt iron ore usually comes from burning natural gas, coal or, more often coke.
“Coke is the most important raw material fed into the blast furnace in terms of its effect on blast furnace operation and hot metal quality,” writes Hardarshan S. Valia, a scientist at Inland Steel (now ArcelorMittal).
Coking coal is a fuel and heat source that is essential to the production of steel. Coke, also known as metallurgical coal, is produced by baking coal in an airtight furnace at 2,000-3,000 °F. Generally, two tons of coal are baked to create one ton of coke. The process of creating coke toxifies large amounts of water, releases copious greenhouse gases and other toxic fumes, and requires large amounts of electricity.
“Air emissions such as coke oven gas, naphthalene, ammonium compounds, crude light oil, sulfur and coke dust are released from coke ovens,” notes the Illinois Sustainable Technology Center, “[and] quenching water becomes contaminated with coke breezes and other compounds.”
At this stage of the process, ground up limestone or other carbon-rich rock is added to the molten iron ore to balance the acidity of coke and coal. This is called reduction. While a small portion of the carbon content of the limestone and coal or coke is adsorbed into the molten metal and adds strength to the steel, the bulk of this carbon is released to the atmosphere as CO2.
At current rates, around 1.9 metric tons of CO2 are released for every metric ton of steel production. Overall, the International Energy Agency estimates that 4-5% of global CO2 emissions come from the iron and steel industry.
Once the smelting process in the blast furnace is complete, the result is an intermediate stage in steel production called pig iron. This molten pig iron is now prepared for the next step, which involves processing in a basic oxygen furnace.
In the basic oxygen furnace, molten pig iron is poured into a large ladle and scraps of recycled steel are added. Impurities of silicon, phosphorous, and sulfur are removed by means of a chemical reaction, and high purities of oxygen are blown into the vessel at velocities greater than the speed of sound. This superheats the mixture and removes further impurities. The molten metal is now steel.
The basic oxygen furnace is only the most common method of steel production, used for 60% of global production with the process described above. This is called “primary steel production”. Secondary steel, which requires less energy input but is a lower quality product, is made entirely from scrap steel using an electric arc furnace. Steel production from recycled scrap accounts for nearly half of all steel production in developed countries.
What is steel used for?
As noted above, steel is critical to the global economy. It is considered one of the basic raw materials for industrial development, and is used for the production of cranes, ships, trucks, trailers, cars, jacking platforms, underwater cables, electrical transmission towers and lines, rail cars, girders for buildings and bridges, home appliances, pots and pans, bicycles, guard rails, scaffolding - the list goes on endlessly.
While the role of steel and other polluting substances in many of these products and industries has been examined thoroughly, the same rigor has generally not been applied to alternative energy technologies. Wind turbines, for example, use a great deal of steel. As has been noted by the World Steel Association, the global trade group for the industry: “every part of a wind turbine depends on iron and steel.”
Can steel be sustainable?
One of the most common wind turbines in the world today is a 1.5 megawatt design produced by General Electric. The nacelle - the portion of the turbine on top of the tower - weighs 56 tons, while the tower weighs in at 71 tons and the blades at 36 tons. A single turbine, at over 60 percent steel, requires over 100 tons of the material.
This 1.5 megawatt model is a smaller design by modern standards - the latest industrial turbines can require more than twice as much steel.
The production and installation of wind turbines also requires large amounts of concrete (more than 1,000 tons for a standard wind turbine anchor platform) and other materials such as copper, which is used for electrical cables and makes up some 35% of the generator. About half of all copper mined worldwide is used for electrical wires and transmission cables.
Copper production is a large source of pollution and waste, starting with the exploration and development process, where roads and facilities are built, and ending with the toxic byproducts of copper refining.
Impacts of copper mining mirror steel production, and include land clearance, soil removal, erosion of soil and mine waste, toxic tailings, acid mine drainage, contaminant leaching, water extraction and contamination, the release of dust and particulate matter, air pollution from vehicles and machinery, mercury and other heavy metal contamination, habitat loss and fragmentation, soil and groundwater contamination, and greenhouse gas emissions.
The Bingham Canyon Copper Mine near Salt Lake City, Utah, is the largest man-made excavation in the world, and a good example of the toxic nature of extraction and refining – the Salt Lake Valley periodically registers the worst air quality in the United States. The mine is visible from space with the naked eye.
Global Trade
Beyond the direct impacts of steel production, the process of creating wind turbines must be assessed in context; in this case, the context of global trade. Creating a wind turbine is a worldwide manufacturing operation, explains Brian Doughty of Puget Sound Energy, who manages a wind power installation in eastern Washington state.
“For this particular project,” Doughty notes, “these tower sections came from Vietnam, the nacelles and blades came from Denmark, everything was brought into the port of Vancouver WA, and brought up here [to eastern Washington] by truck.”
This global arrangement of shipping and transportation tangles wind turbines further in a vast, deadly net of fossil fuels, pollution, devastated ecosystems, “free trade” agreements, and decimated communities.
Steel: the past, not the future?
The World Steel Association and other global entities are convinced that steel is a key material for the future of civilization. But as should be clear from the information presented above, steel is an industrial material for an industrial world – dirty, polluting, energy intensive.
There are many options for the human species moving forward. Steel lies along the industrial path that we have trodden before, dirty and littered with the bodies of the collaterally damaged. Which path is taken remains to be seen, but one thing is sure: before we can make the right decisions, we must have the facts. And with steel, the facts are grim.
