Do You Live in a Climate Change Hotspot?

Spaceborne Carbon Counter Map

Nearly half of all human carbon dioxide emissions are absorbed by plants, and NASA is monitoring this absorption.

Carbon dioxide or CO2 emissions into our planet’s atmosphere is causing climate change — a major problem that humans need to tackle and adapt to.  It is leading to warmer atmospheric temperatures, warmer and more acidic oceans, rising sea-levels, and changing and extreme weather patterns.  Although nations across the globe have committed to reducing carbon emissions, emissions will not slow in the near future, and CO2concentrations will continue to rise.

An alarming fact is that CO2 concentrations are the highest they have been in 400,000 years, and we are on track to cross the CO2 threshold of 400 parts per million (ppm).  This threshold does not mean there is going to be a climate catastrophe, but it does signal the importance of fighting climate change and how government inaction has only lead to worsening global impacts.

Luckily for us, CO2 concentrations would be much higher if it were not for plants that absorb nearly half of all human emissions each year.  NASA is very interested in this part of the carbon system and is now monitoring and tracking the absorption of CO2 by the land and ocean.

“Some years, almost all of it stays in the atmosphere and some years almost none of it remains in the atmosphere.  So in those years it must be absorbed into the ocean and land,” said Mike Freilich, the head of NASA’s Earth Science Division.


NASA scientists have been tracking CO2 movement using models and satellites such as NASA’s Orbiting Carbon Observatory-2 (OCO-2).  “OCO-2 gathers 100,000 high quality measurements of CO2 across the globe daily,” said Annmarie Eldering, deputy project scientist of OCO-2.  The instruments used on the satellite are so sensitive that they can detect changes as small as 1 ppm over any location, allowing scientists to determine potential COhotspots.

For example, data from OCO-2 shows that there has been more CO2 over the tropical Pacific Ocean since the spring.  Scientists are unsure if this is related to our current El-Niño which is known for creating above average ocean and atmospheric temperatures, but the results are different from previously collected data.

Why is it so important to monitor and track this absorbed CO2?  Not only will it help scientists understand how the absorption of CO2 by plants may change with a changing climate, according to Lesley Ott, a NASA research who works on the carbon modeling, “The motivation of all of this is to make models better and predict how the carbon cycle is going to change over the coming years.”

The problem of climate change can no longer be ignored, and improved CO2 modeling will hopefully influence policymakers to make scientifically-informed decisions to protect our planet for generations to come.

Source: Do You Live in a Climate Change Hotspot?

Do You Live in a Climate Change Hotspot?

New Principles to Help Accelerate the Growing Global Momentum for Carbon Pricing

  • New report shows the number of implemented or planned carbon pricing schemes around the world has almost doubled since 2012, with existing schemes now worth about $50 billion.
  • About 40 nations and 23 cities, states or regions are using a carbon price. This represents the equivalent of about 7 billion tons of carbon dioxide, or 12 percent of annual global greenhouse gas emissions.
  • And new report lays out six key principles to put a price on carbon – the FASTER principles – for putting a price on carbon based on economic principles and experience of what is already working around the world

The spotlight is on New York now with the upcoming United Nations meeting on the new Sustainable Development Goals, Climate Week New York, and in about two months, global leaders will meet again in Paris for COP 21.

The decisions made in New York and Paris will set the course for development for years to come. But while these are top level, pivotal meetings, actors around the world are not waiting for a global agreement to act. They are already putting a price on carbon dioxide and other greenhouse gas emissions to drive clean investment. This includes the private sector. And we’ve seen companies from the oil and gas industry – calling for widespread carbon pricing. Today, over 400 businesses worldwide are using an internal price on carbon to guide their investments.

” The world needs to find effective ways to reduce carbon pollution. We must design the best ways to price carbon in order to help cut pollution, improve people’s health, and provide governments with a pool of funds to drive investment in a cleaner future and to protect poor people. “

Jim Yong Kim

World Bank Group President


Around the world, about 40 national and 23 city, states and regions are using carbon pricing schemes, like emissions trading systems (ETS) or carbon taxes. These represent about 7 billion tons of carbon dioxide, or 12% of global greenhouse emissions, a threefold increase over the past decade.

To help countries navigate the waters, the World Bank Group, together with the OECDand with input from the IMF, also released a report today on the FASTER Principles, which helps governments and business develop efficient and cost-effective instruments to put a price on the social costs of emissions.

The FASTER principles are: F for fairness; A for alignment of policies and objectives; S for stability and predictability; T for transparency; E for efficiency and cost-effectiveness and R for reliability and environmental integrity.

With COP21 fast approaching, the need for meaningful carbon policies is more important than ever. Carbon pricing is central to the quest for a cost-effective transition towards zero net emissions in the second half of the century. These principles will help governments to incorporate carbon pricing as a key part of their policy toolkit,” said Angel Gurría, Secretary-General of the OECD.

The research draws on over a decade of experiences with carbon pricing initiatives around the world, such as emissions trading systems and taxes in places like the European Union, British Columbia, Denmark, Sweden, and the United Kingdom. It points to what’s been learnt to date: well-designed carbon pricing schemes are a powerful and flexible tool that can cut emissions that cause climate change and if adequately designed and implemented can play a key role in enhancing innovation and smoothing the transition to a prosperous, low-carbon global economy.

“Carbon pricing is effective in reducing emissions that cause climate change, is straightforward to administer, can raise valuable revenues for broader fiscal reforms, and can help address local pollution as well as global climate change. We welcome the opportunity to continue collaborating with the World Bank, OECD, and others on this critical policy tool,” said Christine Lagarde, Managing Director of the International Monetary Fund.

There is growing momentum: Since 2012, the number of implemented or scheduled carbon pricing instruments nearly doubled, from 20 to 38, and they are now worth about $50 billion. This progress is described in a new report, launched by the World Bank and Ecofys called the State and Trends of Carbon Pricing 2015 report.

Some examples:  

  • Last year, Chile approved a national carbon tax to start in 2017.
  • In January of this year, the Republic of Korea launched an ambitious carbon market.
  • Today, the EU ETS is the largest carbon instrument in terms of value, followed by the trading systems in Korea and California.
  • Ontario, Canada’s most populous province, announced in April that it is joining California and Quebec’s emissions trading systems. And the EU and South Korea announced plans this week to explore linkage between their emissions trading systems.
  • The US and China – the world’s largest greenhouse gas emitters – host the two largest national carbon pricing initiatives in terms of volume covered, driven by initiatives in their states and provinces. In China, the carbon initiatives cover the equivalent of 1 billion tons of CO2, while in the US, they cover the equivalent of 0.5 billion tons of CO2.
  • China, which already has seven pilot carbon markets operating in major cities and provinces, announced plans to launch a national system in 2016.

And it was just announced on Wednesday last week that more than two dozen cities in China and the US are making new pledges to lower emissions. This is welcome news. But the ambition and coverage of pricing needs to accelerate significantly for the world to meet international climate goals. Overall, these experiences with carbon pricing show little negative impact on economic growth but have a significant impact on energy intensity and diversification (or “greening”) of the energy mix.

There have been concerns that carbon pricing will affect international competitiveness of some industries and lead them to move production, or even whole factories, to other countries or jurisdictions where emission costs are lower, a phenomenon called “carbon leakage”. The report notes that ex-post analysis of the EU ETS, the biggest cap-and-trade system in place today, shows that so far, the carbon leakage has not materialized on any significant scale.

In the future, the risk of carbon leakage is real as long as carbon price signals are strong and differ significantly between jurisdictions. Also, this risk tends to only affect a limited number of exposed sectors and can be effectively mitigated through policy design.

The State and Trends report also discusses the enormous savings that can be made through – cooperation between countries. Compared to domestic action alone, cooperation and linking of carbon pricing instruments across borders could significantly lower the cost of achieving a 2°C stabilization goal, because countries have more flexibility in choosing who undertakes emission reductions, and who pays for them.

Analysing several studies made over the years, the State and Trends report shows that this cooperation can mobilize resources and transfers between countries and investors, and result in net annual flows of financial resources of up to $400 billion by 2030 and up to $2.2 trillion by 2050.

The report also says that carbon prices that converge have a positive impact on competitiveness by favouring more efficient and cleaner sectors, leading to a more efficient economy.

Source: New Principles to Help Accelerate the Growing Global Momentum for Carbon Pricing

New Principles to Help Accelerate the Growing Global Momentum for Carbon Pricing

A Canadian start-up is removing CO2 from the air and turning it into pellets

A pilot project to suck CO2 out of the atmosphere and turn it into pellets that can either be used as fuel or stored underground for later has been launched by a Calgary-based start-up called Carbon Engineering.

While the test facility has so far only extracted 10 tonnes of CO2 since its launch back in June, its operations will help inform the construction of a $200 million commercial plant in 2017, which is expected to extract 1 million tonnes per day – the equivalent of taking 100 cars off the road every year. It plans to start selling CO2-based synthetic fuels by 2018.

“It’s now possible to take CO2 out of the atmosphere, and use it as a feed stock, with hydrogen, to produce net zero emission fuels,” company chief executive Adrian Corless told the AFP.

Funded by private investors, including billionaires Bill Gates and oil sands financier Murray Edwards, Carbon Engineering is not the only company in the world intent on solving our carbon dioxide problems, but it claims to be the first to demonstrate how its technology can be scaled up to have both an actual environmental impact and commercial potential.

Instead of tackling the CO2 that pours out of factory smokestacks – because there are existing machines that do this pretty well – the Carbon Engineering ‘direct air capture plant’ will deal with everyday carbon emissions from buildings, transportation, and agriculture. “Emissions from sources you just can’t otherwise capture,” Corless says.

“It’s still a pilot-scale plant,” he told CBC News. “But it’s very important, because it’s the first time that anyone’s demonstrated a technology that captures CO2 that has the potential to be scaled up to be large enough to be relevant from an environmental or climate point of view.”

As we reported back at the time of the test plant launch, direct air capture works just like these new solar cells that split water into a hydrogen fuel – the CO2 recycling plant extracts CO2 from the air using a giant complex of fans, and combines this with liquid hydrogen split from water. This mixture can then be converted into solid pellets of calcium carbonate, and either heated to between 800 and 900 degrees Celsius to release pure carbon for use as fuel, or stored for later.

CEProcessCarbon Engineering

According to CBC News,
the larger plant should be able to produce up to 400 litres of gasoline or diesel per day using this method. One of the main things it has going for it is that because it turns the CO2 into fuel, no change in infrastructure will be needed to power big fuel-guzzlers such as ships, planes, and long-haulage trucks. Even existing petrol pumps can work with the fuel. A major limitation of solar and wind technologies, on the other hand, is that they require specific technologies to capture and disperse energy.

“The nice thing about the technology is that there are no real limitations for it to ultimately, in theory, displace all of the existing fossil-based transportation fuels,”Corless said.

Going forward, the most important thing for Carbon Engineering to figure out is how to be commercially viable. As Kesavan Unnikrishnan points out at Digital Journal, carbon can cost anything from $1/tonne (Mexico and Poland) to $130/tonne (Sweden) around the world, and Carbon Engineering will need to sell its product at around $100/tonne to support itself commercially.

We’ll have to wait and see how things go for direct air capture in the future, but we’re so excited by its potential. Watch the video below to find out more about how it works:

Source: A Canadian start-up is removing CO2 from the air and turning it into pellets

A Canadian start-up is removing CO2 from the air and turning it into pellets

Scientists are building a system that could turn atmospheric CO2 into fuel

Scientists in Canada are developing an industrial carbon dioxide recycling plant that could one day suck CO2 out of the atmosphere and convert it into a zero-carbon e-diesel fuel. Developed by tech start-up Carbon Engineering and partly funded by Bill Gates, the system will essentially do the job of trees, but in places unable to host them, such as icy plains and deserts.

Just like these new solar cells that are designed to split water into a hydrogen fuel, the CO2 recycling plant will combine carbon dioxide with hydrogen split from water to form hydrocarbon fuel. The plan is to provide the technology that could one day produce environmentally friendly fuel to complement the renewable energy systems we have now. “How do you power global transportation in 20 years in a way that is carbon neutral?” Geoff Holmes, business development manager at Carbon Engineering, told Marc Gunther at The Guardian. “Cheap solar and wind are great at reducing emissions from the electricity. Then you are left with the transport sector.”Carbon Engineering is one of a handful of companies around the world that are now set on coming up with ways to suck enough carbon dioxide out of the atmosphere to actually put a dent in the effects of climate change. There’s also the New York City-based start-up Global Thermostat, and Swiss-based Climeworks, which demonstrated earlier this year with Audi how its technology can capture carbon dioxide, and deliver it to German company Sunfire, where it was recycled into a zero-carbon diesel fuel.

While Climeworks’ demonstration was impressive, what all three companies now need to do is figure out how to make their atmospheric carbon dioxide to fuel systems economically viable. And this won’t be easy. One problem they’re going to have to overcome is the high cost of heating their carbon dioxide to around 400 degrees Celsius so they can process it properly. Another problem is that few investors are interested in giving them money until they can prove that this is actually feasible.

As Gunther reports for The Guardian, governments and private investors aren’t interested in paying anyone to come up with ways to simply suck carbon dioxide out of the environment, no matter how beneficial to the environment it might be. Plus even if someone was interested, they’d better be willing to fork out the billions of dollars it’s going to take to build a system that could actually make a discernible difference to the world’s climate. These developers need to offer their investors something valuable in return, and the obvious answer is fuel.


Right now, Carbon Engineering’s planned system could only capture only about 450 tonnes of CO2 each year, which would barely cover the carbon emissions of 33 average Canadians, but they say this system could be scaled up to 20,000 times to make it more practical.

As the video explains below, direct air capture seems to be the only potentially feasible way to absorb carbon dioxide that’s already been emitted from small mobile sources such as cars, trucks, and planes, which make up 60 percent of carbon dioxide emissions today. The systems require 1,000 times less land than carbon-sucking trees, and can be installed on land, like desert plains, that isn’t worth cultivating or inhabiting.

“I believe we have reached a point where it is really paramount for substantive public research and development of direct air capture,” Klaus Lackner of Arizona State University’s Centre for Negative Carbon Emissions said at the American Physical Society meeting in the US earlier this year.

“Scientists are increasingly convinced that we are going to need large scale removal systems to fight climate change,” Noah Deich from the California-based Centre for Carbon Removal told The Guardian. “I’m excited about direct air capture. It could be a really important technology to add to the portfolio.”

Watch the video below to see how Carbon Engineering plans on doing it. It’s going to take a while before we see the captured carbon to fuel model become a viable solution, but that’s not stopping the likes of Carbon Engineering, Climeworks, and Global Thermostat. We’re excited to see what they come up with.

Scientists are building a system that could turn atmospheric CO2 into fuel

Tundra study uncovers impact of climate warming in the Arctic

Scientists are using ring growth data, like these shown in a willow shrub, to assess the age and growth of shrubs in a huge study of the Arctic tundra.
Credit: Isla Myers-Smith

Significant changes in one of Earth’s most important ecosystems are not only a symptom of climate change, but may fuel further warming, research suggests.

One of the biggest studies to date of key vegetation in the Arctic tundra provides strong evidence that dramatic changes in the region are being driven by climate warming.

Studies of tundra shrubs — which act as a barometer of the Arctic environment — show that they grow more when temperatures are warmer. Increased shrub growth, driven by recent and future warming in the Arctic, could cause more warming in tundra ecosystems and for the planet as a whole.

Taller shrubs prevent snow from reflecting heat from the sun back into space, warming Earth’s surface. They can also influence soil temperatures and thaw permafrost. Increased shrubs can change the cycling of nutrients and carbon in soil, affecting its decomposition and the amount of carbon released to the atmosphere. All these factors can contribute to climate warming both in the Arctic and on a global scale.

Shrub species in wet landscapes at mid-latitudes of the Arctic are the most sensitive to climate warming, the study found. These areas are vulnerable to change as they store large amounts of carbon in frozen soil, which could be released by warming and permafrost thaw.

An international team of scientists at 37 sites in nine countries, led by the University of Edinburgh, studied records of shrub growth spanning 60 years by analysing annual growth rings in the plant stems, to explore links between climate and vegetation change.

The study, published in Nature Climate Change, was funded by the International Arctic Science Committee. The findings will help improve models of future changes to tundra ecosystems and the impacts of these changes on the global climate.

Dr Isla Myers-Smith, of the University of Edinburgh’s School of GeoSciences, who co-ordinated the study, said: “Arctic shrub growth in the tundra is one of the most significant examples on Earth of the effect that climate change is having on ecosystems. Our findings show there is a lot of variation across this landscape. Understanding this should help improve predictions of climate change impacts across the tundra.”

Story Source:

The above post is reprinted from materials provided byUniversity of EdinburghNote: Materials may be edited for content and length.

Journal Reference:

  1. Isla H. Myers-Smith, Sarah C. Elmendorf, Pieter S. A. Beck, Martin Wilmking, Martin Hallinger, Daan Blok, Ken D. Tape, Shelly A. Rayback, Marc Macias-Fauria, Bruce C. Forbes, James D. M. Speed, Noémie Boulanger-Lapointe, Christian Rixen, Esther Lévesque, Niels Martin Schmidt, Claudia Baittinger, Andrew J. Trant, Luise Hermanutz, Laura Siegwart Collier, Melissa A. Dawes, Trevor C. Lantz, Stef Weijers, Rasmus Halfdan Jørgensen, Agata Buchwal, Allan Buras, Adam T. Naito, Virve Ravolainen, Gabriela Schaepman-Strub, Julia A. Wheeler, Sonja Wipf, Kevin C. Guay, David S. Hik, Mark Vellend. Climate sensitivity of shrub growth across the tundra biomeNature Climate Change, 2015; DOI: 10.1038/nclimate2697
Tundra study uncovers impact of climate warming in the Arctic

NOAA Global Summary lnformation – June 2015

Note: With this report and data release, the National Centers for Environmental Information is transitioning to improved versions of its global land (GHCN-M version 3.3.0) and ocean (ERSST version 4.0.0) datasets. Please note that anomalies and ranks reflect the historical record according to these updated versions. Historical months and years may differ from what was reported in previous reports. For more, please visit the associated FAQ and supplemental information.

June 2015 was warmest June on record for the globe.

Global land areas and oceans each record warm for June.

First half of 2015 also record warm.

Global highlights: June 2015

June Blended Land and Sea Surface Temperature Percentiles

June 2015 Blended Land and Sea Surface 
Temperature Percentiles
 June 2015 Blended Land & Sea Surface Temperature Anomalies in °C

  • During June, the average temperature across global land and ocean surfaces was 1.58°F (0.88°C) above the 20thcentury average. This was the highest for June in the 1880–2015 record, surpassing the previous record set last year in 2014 by 0.22°F (0.12°C).
  • The June globally-averaged land surface temperature was 2.27°F (1.26°C) above the 20th century average. This was the highest for June in the 1880–2015 record, surpassing the previous record set in 2012 by 0.11°F (0.06°C).
  • The June globally-averaged sea surface temperature was 1.33°F (0.74°C) above the 20th century average. This was the highest for June in the 1880–2015 record, surpassing the previous record set last year in 2014 by 0.11°F (0.06°C).
  • The average Arctic sea ice extent for June was 350,000 square miles (7.7 percent) below the 1981–2010 average and 60,000 square miles larger than the smallest sea ice extent that occurred in 2010. This was the third smallest June extent since records began in 1979, according to analysis by the National Snow and Ice Data Center using data from NOAA and NASA.
  • Antarctic sea ice during June was 380,000 square miles (7.2 percent) above the 1981–2010 average. This was the third largest June Antarctic sea ice extent on record and 140,000 square miles smaller than the record-large June extent of 2014.

Global highlights: Year-to-date (January–June 2015)

    • During January–June, the average temperature across global land and ocean surfaces was 1.53°F (0.85°C) above the 20th century average. This was the highest for January–June in the 1880–2015 record, surpassing the previous record of 2010 by 0.16°F (0.09°C).
    • During January–June, the globally-averaged land surface temperature was 2.52°F (1.40°C) above the 20th century average. This was the highest for January–June in the 1880–2015 record, surpassing the previous record of 2007 by 0.23°F (0.13°C).
    • During January–June, the globally-averaged sea surface temperature was 1.17°F (0.65°C) above the 20th century average. This was the highest for January–June in the 1880–2015 record, surpassing the previous record of 2010 by 0.07°F (0.04°C)

For extended analysis of global temperature and precipitation patterns, please see our full June report

Source: Global Summary lnformation – June 2015

NOAA Global Summary lnformation – June 2015

Clean energy solutions that achieve benefits in health

Energy access is a basic requirement for human development and well-being, but it is vastly different for the poorest 3 billion people on Earth than it is for the richest 1 billion. The top billion consume 50 per cent of available fossil energy while—more than two centuries after the industrial revolution—the poorest 3 billion are still forced to rely on traditional fires (fueled by wood, dung, agricultural waste, charcoal and coal) to cook and heat their homes. One third of them are also forced to use kerosene and candles for lighting. This imbalance in access to modern energy comes at enormous costs to human health and the environment, and creates further disparities in how the effects of those costs are experienced.

In their use of fossil fuels, the top 1 billion contribute more than half the emissions of carbon dioxide and other greenhouse gases that cause global warming. If they (and the middle-income 3 billion) continue current rates of fossil fuel consumption, the world will witness warming of 2°C or more in a few short decades. The brunt will be borne by the bottom 3 billion, who live on the edge of subsistence and are most vulnerable to the resulting droughts or other changes in weather and climate.

At the same time—through being limited to using inefficient cooking fires and lamps—the poorest 3 billion are exposed to large quantities of soot (or black carbon) and brown carbon. Once emitted, black carbon particulates both escape into the atmosphere and contribute to household health risks. They are unquestionably deadly. About 4 million people die each year from the toxic smoke emitted by household fires and lights. Exposure to household air pollution kills more people than malaria, TB and HIV combined.

Such household emissions may also contribute as much as 20 per cent to black carbon emissions worldwide. This is vastly significant because black carbon (from stoves and other sources) is the second largest contributor to global warming after carbon dioxide and leads to crop loss, deforestation and the melting of glaciers, threatening critical food and water sources.

About 4 million people die each year from the toxic smoke emitted by household fires and lights. Exposure to household air pollution kills more people than malaria, TB and HIV combined.

The consequences of energy imbalance are dire.

But the new United Nations initiative Sustainable Energy for All, which aims to provide access to sustainable and renewable energy sources to everyone, is unprecedented and extremely productive.

The health benefits of providing energy to the bottom 3 billion would be far ranging, and the climate benefits would be felt by all.

Project Surya, which we lead, focuses on clean energy solutions for the poorest that achieve benefits in health, climate and sustainability by employing clean cooking and lighting technologies that reduce smoke emissions by 90 per cent or more. One chronic issue with these advanced technologies—which still use locally available solid biomass— is that with the added performance comes additional cost. The costs—typically, about six weeks of income for rural households—along with the lack of robust supply chains, inhibit scaling up the technologies to the hundreds of millions of households where they are needed.

Yet the use of advanced energy technologies enables us to leverage the link between household pollution and climate change. Surya now provides users of advanced improved stoves with the credit they deserve for mitigating climate change. Households that employ them generate quantifiable reductions in black carbon and carbon dioxide, with direct positive impacts on the climate—and so should be able to sell the resulting credits in a market. Much as a company can sell carbon credits for cleaning up its operations, we believe individual women should also receive financial benefits for their actions to reduce emissions of carbon dioxide and black carbon.

Generating carbon credits for switching to improved stoves is nothing new. After all, burning firewood leads to 1-2 billion tons of carbon dioxide emissions every year. The contributions from each household do not reflect the total potential climate mitigation achieved, although improved stoves also help to reduce deforestation. But quantifying the black carbon reductions—which work separately from carbon dioxide—reveals that their true carbon savings are two to three times greater. Moreover, including black carbon may bring new investors and buyers to carbon markets because reducing it has more immediate climate mitigation impacts than cutting carbon dioxide and has clear health and sustainability benefits. So this new approach could catalyze new funds to support energy access at scale.

While this seems straightforward in principle, there are some formidable challenges. One example of these is verifying the use of clean stoves on a house-by-house basis. Another is accurately translating stove usage to “climate credits”, saleable via a carbon market (or results-based financing mechanism), which encompass reductions in both carbon dioxide and black carbon particulates from adopting the cleaner energy technology.
And a third is distributing the financial credits to the women using the stoves, or the stove distributor.

Project Surya’s Climate Credit Pilot Project (C2P2) combines cutting-edge air pollution and climate change science with pioneering wireless sensor technologies to work towards universal access to advanced cook stoves and solar lighting systems. Through an international partnership that includes NGOs, private donors, academics, government banks, The Gold Standard Foundation’s Voluntary Carbon market, rural entrepreneurs, village chiefs and small women’s groups, Surya uses wireless sensors integrated into kitchens to document climate credits generated by using improved stoves. Close to a quarter of households now use the improved stoves for 50-100 per cent of their daily cooking needs. Each household that uses the stove for all cooking could earn approximately $35 per year (assuming an estimate of $6 per tonne of CO2 equivalent). Carbon markets ensure a level of transparency and standardization of methods for verification and validation that will be important if this initiative is to scale up beyond Surya or any single institution. Surya is now working to expand this carbon market approach to encourage the adoption of clean lighting, as well as cooking, technologies.

Through this work, Project Surya is celebrating and rewarding the role of the poorest women in the world as climate warriors.

We acknowledge the contributions of Tara Ramanathan in leading the Nexleaf Analytics cookstove programme in the field and significant contributions from Omkar Patange in India. We thank Charlie Kennel and Ellen Lehman, Mac McQuown, Qualcomm Wireless Reach, UK AID, and the United Nations Environment Programme for their explicit support of C2P2.

Source: Credit Where it’s Due

Clean energy solutions that achieve benefits in health