PCIA Bulletin Issue 24 – This issue focuses on the collective results of Partners’ efforts in 2009, recorded through their annual results reports. So far 54 Partners working in 61 countries have submitted reports on their 2009 activities. This issue highlights their progress manufacturing, selling, and testing stoves, accessing carbon finance, scaling operations, etc.

Full-text: http://www.pciaonline.org/files/PCIA-Bulletin-Issue-24.pdf (pdf, 1.37MB)

Feature Articles
-StoveTec at Scale
-SNV’s National Biogas Programmes
-SCA Promoting Integrated Cooking
-TWP Supporting Haiti Relief
-Aprovecho: Stove Design & Testing
-Berkeley Air: Science Based M&E
Partner Profile Update Campaign
Happenings
-KPT Training Update
-Conducting the WBT and CCT
-EPA’s Second Round of Stove Testing
-A New Global Alliance
-Stove Camp 2010
Map: Countries of Implementation

Int J Environ Res Public Health. 2010 Jul;7(7):2940-52.

Situational analysis of household energy and biomass use and associated health burden of indoor air pollution and mitigation efforts in pakistan.

Full-text: http://www.ncbi.nlm.nih.gov/pmc/articles/PMC2922737/pdf/ijerph-07-02940.pdf

Fatmi Z, Rahman A, Kazi A, Kadir MM, Sathiakumar N.

Division of Environmental Health Sciences, Department of Community Health Sciences, Aga Khan University, Stadium Road, P.O. Box 3500, Karachi, Pakistan.

Biomass fuel burning leads to high levels of suspended particulate matter and hazardous chemicals in the indoor environment in countries where it is in common use, contributing significantly to indoor air pollution (IAP). A situational analysis of household energy and biomass use and associated health effects of IAP was conducted by reviewing published and un-published literature about the situation in Pakistan. In addition to attempt to quantify the burden of ill health due to IAP, this paper also appraises the mitigation measures undertaken to avert the problem in Pakistan. Unfortunately, IAP is still not a recognized environmental hazard in Pakistan and there are no policies and standards to control it at the household level. Only a few original studies related to health effects of IAP have been conducted, mainly on women’s health and birth outcome, and only a few governmental, non-governmental and academic institutions are working to improve the IAP situation by introducing improved stoves and renewable energy technology at a small scale. Control of IAP health hazards in Pakistan requires an initial meeting of the stakeholders to define a policy and an action agenda. Simultaneously, studies gathering evidence of impact of intervention through available technologies such as improved stoves would have favorable impact on the health, especially of women and children in Pakistan.

August 20, 2010 – In support of the Energy and Climate Partnership of the Americas (ECPA), the Department of State will provide $1 million to fund Peace Corps volunteer efforts that increase rural access to energy, mitigate the effects of climate change, and support the use of renewable energy and energy efficient technologies in Central and South American communities.

“I am pleased that the Peace Corps will play an active role in ECPA,” said Peace Corps Director Aaron S. Williams. “Peace Corps volunteers have been innovators at the grassroots level for nearly 50 years. This agreement will provide the support for our volunteers to work with international experts and local organizations, businesses, and community members on the ground to create efficient and green solutions to energy challenges in the Americas.”

Under the partnership, Peace Corps volunteers will work with members of local communities to build infrastructure to support environmentally-friendly energy and educate communities on climate change and energy conservation. Volunteers will train host-country citizens to install, operate, and maintain energy-efficient technology including the use of alternative fuels, biodigesters, solar water heaters, photovoltaic devices, solar and fuel-efficient stoves, and wind or mini hydroelectric power generation. These efforts will make clean energy more accessible to rural communities, reduce carbon emissions, improve public health, and provide opportunities for individuals and small businesses to generate income.

In April 2009, at the Fifth Summit of the Americas, President Obama invited all countries in the Western Hemisphere to join ECPA to promote collaboration on renewable energy, energy efficiency, cleaner fossil fuels, and energy poverty. Peace Corps’ initial ECPA-related efforts will be implemented in Costa Rica, Dominican Republic, Guyana, Honduras, Nicaragua, Panama, Peru, and Suriname.

As Peace Corps approaches its 50th anniversary, its service legacy continues to promote peace and friendship around the world with 7,671 volunteers serving in 77 host countries. Historically, nearly 200,000 Americans have served with the Peace Corps to promote a better understanding between Americans and the people of 139 host countries.

Source

Aug 23, 2010 – (CNN) — In rural communities of Africa — where more than 95 percent of homes have no access to electricity — solar energy has the power to transform lives.

Globally, 1.5 billion people, one quarter of the world’s population, live without electricity, according to a United Nations report.

Those who can afford any power at all spend large proportions of their income on kerosene for lamps or travel to larger towns to charge their batteries several times a week.

Burning kerosene contributes to indoor air pollution, which is estimated to kill 1.6 million people each year. Kerosene lamps also lead to fires that cause severe burns and deaths.

Solar energy saves families money as well as allowing children to study in the evenings and giving families access to information through radio and television and mobile phone chargers.

The light from a solar-powered bulb is also between 10 and 20 times brighter than from a kerosene lamp.

Among those bringing solar power to the world’s poor is Rural Energy Foundation, a Dutch non-profit organization. It has now helped 450,000 people in sub-Saharan Africa gain access to low-cost solar power.

Rural Energy Foundation runs the SolarNow program, training independent retailers and technicians in nine countries to sell low-cost solar gadgets or home systems to people without electricity.

Read more – http://www.cnn.com/2010/TECH/innovation/08/10/solar.energy.africa/

A list of IAQ and household energy Twitter resources. If you have others to add, please let us know:

Clean Stoves for All

When it comes to fighting global warming, much of the world’s attention has focused on ways to eliminate coal-fired power plants, promote electric vehicles, and build wind farms. But what if there were something far simpler and more low-tech that would have the same benefit as taking more than half the cars in the United States off the road? Well, it turns out there is—which is why everyone from the U.S. Congress to the United Nations and the philanthropic wing of Shell Oil is suddenly talking about cookstoves.

Burning wood or dung in simple stoves or open hearths is the way half the world’s people—the poorer half, in places like India and sub-Saharan Africa—prepare meals and heat homes. For years activists have tried to convert people to more efficient chimney stoves as a way to improve health. (Smoke from indoor fires kills more people each year than malaria or tuberculosis and contributes to childhood pneumonia, the leading cause of death for those under 5, according to the World Health Organization.) But old habits die hard. Plus, cleaner-burning stoves were either too expensive or too unreliable to be attractive to the poorest of the poor.

Scientists, however, have recently begun focusing on black carbon, a component of soot that is produced from burning wood or dung, as an important contributor to global warming. By some estimates, black carbon is far more damaging per ton of emissions than carbon dioxide. Because black carbon stays in the air for just days or weeks—as opposed to the 100 years or more that carbon dioxide remains in the atmosphere—scientists believe tackling it may be the fastest way to mitigate global warming.

About 20 percent of the world’s black-carbon emissions comes from cooking fires (the rest comes primarily from diesel engines and forest or crop fires). Converting most of the world’s poor to more efficient stoves—which still burn solid fuel, just far less of it—would do as much to prevent global warming as taking 134 million cars off the streets, and do so at a fraction of the cost. That’s why building better stoves—and finding a way to persuade the poor to use them—has become a priority.

The energy bill passed by the U.S. Senate in May calls for the government to help distribute stoves. A similar bill passed by the U.S. House of Representatives in 2009 even mandated that 20 million homes be provided with better stoves within five years. The history of cookstoves, however, is one of a succession of well-intentioned failures. India paid tens of millions of dollars to supply stoves to rural villages between 1984 and 2004. But the government stoves were of poor quality and, because they were given away, there was no natural after-market for servicing them. As a result, within a few years the vast majority were no longer in use.

Many, though, think this time will be different. A handful of private companies have decided there is money to be made in stoves, and they are marketing models that are efficient, durable, and priced between $25 and $100. That’s still too costly for many of the world’s poorest. Experts say the price has to drop below $12 for guaranteed widespread adoption. But some are hoping that the growing ranks of microfinance banks will be persuaded to lend money to villagers to bridge this gap, or that Western companies might be persuaded to finance distribution in exchange for carbon-trading credits. The U.N. Foundation also plans to launch a Global Alliance for Clean Cookstoves in September. But it remains unclear whether enough of the world’s poor can be persuaded to change the way they cook in time to keep the entire planet from roasting.

Source: July 24, 2010, http://www.newsweek.com/2010/07/24/clean-stoves-for-all.html

July 30, 2010 – WINDHOEK, Namibia (AlertNet) – The area around Otjiwarongo in Namibia’s heartland is a green sea of short, shrubby trees as far as the eye can see. While beautiful to some, this bush is an invader species and seen by ranchers as a dreaded pest that pushes out nutritious grasses.

Since the 1950s, bad grazing practices have led to the bush taking over 26 million hectares of Namibia’s rangeland – an area the size of New Zealand. That costs the country’s beef farmers $160 million a year in lost earnings, in an industry that farmers say accounts for 3 to 6 percent to Namibia’s gross domestic product.

But what if the bush could be fed into a power plant, clearing land for grazing and simultaneously supplying Namibia with clean, renewable electricity in a region that is starved of energy?

“(Burning) wood to make electricity is one of the cheapest renewable energy options available,” said Robert Schultz, head of energy projects for the Desert Research Foundation of Namibia (DRFN), a think tank.

“And it is quick,” he said. “Sixty minutes after powering up the plant, kilowatts are flowing into the grid. This makes it suitable to meet unexpected peaks in demand.”

PLENTY OF BUSH TO BURN
A typical 4,000 hectare (10,000 acre) Namibian farm could provide enough wood to power more than 100 high-income homes for 25 years, the life of a generating unit, Schultz estimated. By conservative estimates, Namibia has enough bush to sustainability supply power to 600,000 high-income homes over that period.
With European Union funds, Schultz’s think tank is starting a pilot project to turn Namibia’s bush predicament into a biomass energy project.

On a farm 90 kilometres (56 miles) north of Otjiwarongo, construction has started on a power plant that by September will feed electricity into the national grid.

Cut brush will be burned in a low-oxygen environment to extract wood gas, which is then cleaned, cooled and burned in an internal combustion engine to make electricity.

Read More – http://www.alertnet.org/db/an_art/60167/2010/06/30-164753-1.htm

On July 19th and 20th in Washington, D.C., ministers from 24 governments participated in the first-ever Clean Energy Ministerial, launching 11 initiatives to accelerate the global transition to clean energy. These initiatives will avoid the need to build more than 500 mid-sized power plants in the next 20 years, promote the rapid deployment of electric vehicles, support the growing global market for renewable energy and carbon capture technologies, bring solar lanterns or other improved energy services to more than 10 million people without access to grid electricity by 2015, and help encourage women to pursue careers in clean energy.

Participating governments account for more than 80 percent of global energy consumption and a similar percentage of the market for clean energy technologies. The following governments participated in the Clean Energy Ministerial: Australia, Belgium, Brazil, Canada, China, Denmark, the European Commission, Finland, France, Germany, India, Indonesia, Italy, Japan, Korea, Mexico, Norway, Russia, South Africa, Spain, Sweden, the United Arab Emirates, the United Kingdom, and the United States.

More info: http://www.energy.gov/news/documents/Clean-Energy-Ministerial-Fact-Sheet.pdf

Nature Communications 1, 10 August 2010

Sustainable biochar to mitigate global climate change

Full-text: http://www.nature.com/ncomms/journal/v1/n5/pdf/ncomms1053.pdf

Dominic Woolf, James E. Amonette, F. Alayne Street-Perrott, Johannes Lehmann & Stephen Joseph

Production of biochar (the carbon (C)-rich solid formed by pyrolysis of biomass) and its storage in soils have been suggested as a means of abating climate change by sequestering carbon, while simultaneously providing energy and increasing crop yields. Substantial uncertainties exist, however, regarding the impact, capacity and sustainability of biochar at the global level.

In this paper we estimate the maximum sustainable technical potential of biochar to mitigate climate change. Annual net emissions of carbon dioxide (CO2), methane and nitrous oxide could be reduced by a maximum of 1.8 Pg CO2-C equivalent (CO2-Ce) per year (12% of current anthropogenic CO2-Ce emissions; 1 Pg=1 Gt), and total net emissions over the course of a century by 130 Pg CO2-Ce, without endangering food security, habitat or soil conservation. Biochar has a larger climate-change mitigation potential than combustion of the same sustainably procured biomass for bioenergy, except when fertile soils are amended while coal is the fuel being offset.

Nepal Journal of Science and Technology 10 (2009) 205-211

Categorical Regression Models with Optimal Scaling for Predicting Indoor Air Pollution Concentrations inside Kitchens in Nepalese Households

Full-text: http://www.nepjol.info/index.php/NJST/article/view/2962/2583

Srijan Lal Shrestha,  srijan_shrestha@yahoo.com

Indoor air pollution from biomass fuels is considered as a potential environmental risk factor in developing countries of the world. Exposure to these fuels have been associated to many respiratory and other ailments such as acute lower respiratory infection, chronic obstructive pulmonary disease, asthma, lung cancer, cataract, adverse pregnancy outcomes, etc. The use of biomass fuels is found to be nearly zero in the developed countries but widespread in the developing countries including Nepal. Women and children are the most vulnerable group since they spend a lot of time inside smoky kitchens with biomass fuel burning, inefficient stove and poor ventilation particularly in rural households of Nepal.

Measurements of indoor air pollution through monitoring equipment such as high volume sampler, laser dust monitor, etc are expensive, thus not affordable and practicable to use them frequently. In this context, it becomes imperative to use statistical models instead for predicting air pollution concentrations in household kitchens. The present paper has attempted to contribute in this regard by developing some statistical models specifically categorical regression models with optimal scaling for predicting indoor particulate air pollution and carbon monoxide concentrations based upon a cross-sectional survey data of Nepalese households. The common factors found significant for prediction are fuel type, ventilation situation and house types.

The highest estimated levels are found to be for those using solid biomass fuels with poor ventilation and Kachhi houses. The estimated PM10 and CO levels are found to be 3024 μg/m3 and 24115 μg/m3 inside kitchen at cooking time which are 5.2 and 40.40 times higher than the lowest predicted values for those using LPG / biogas and living in Pakki houses with improved ventilation, respectively.