Category Archives: Asia

Energy Access for World’s Poor should NOT be dependent on cell phone companies

 The assumptions in the below are right; the goal is vital; however, a solution that is based on paying for “air-time” to the cell phone companies, cannot be viable! Pay-per-use and direct transfer of digital money is essential!

Is there a technology to back such a business model? – Indeed! The technology exist! Ask about Pay-4-Use Solar Money based on the most innovative and most distructive platform for digital currency www.bitmint.com

————-Solar Power Off the Grid:
Energy Access for World’s Poor

More than a billion people worldwide lack access to electricity. The best way to bring it to them — while reducing greenhouse gas emissions — is to launch a global initiative to provide solar panels and other forms of distributed renewable power to poor villages and neighborhoods. 

by karl pope* 

After the Durban talks last month, climate realists must face the reality that “shared sacrifice,” however necessary eventually, has proven a catastrophically bad starting point for global collaboration. Nations have already spent decades debating who was going to give up how much first in exchange for what. So we need to seek opportunities — arenas where there are advantages, not penalties, for those who first take action — both to achieve first-round emission reductions and to build trust and cooperation.

One of the major opportunities lies in providing energy access for the more than 1.2 billion people who don’t have electricity, most of whom, in business-as-usual scenarios, still won’t have it in 2030. These are the poorest people on the planet. Ironically, the world’s poorest can best afford the most sophisticated lighting — off-grid combinations of solar panels, power electronics, and LED lights. And this creates an opportunity for which the economics are compelling, the moral urgency profound, the development benefits enormous, and the potential leverage game changing.
Falling Price of Solar

As the accompanying graphs show, the cost of coal and copper — the ingredients of conventional grid power — are soaring. Meanwhile, the cost of solar panels and LEDs, the ingredients of distributed renewable power, are racing down even faster.

If we want the poor to benefit from electricity we cannot wait for the grid, and we cannot rely on fossil fuels. The International Energy Agency, historically a grid-centric, establishment voice, admits that half of those without electricity today will never be wired. The government of India estimates that two-thirds of its non-electrified households need distributed power.

Fortunately, the historic barriers to getting distributed renewable power to scale in poor villages and neighborhoods are rapidly being dismantled by progress in technology, finance, and business models. Getting 1.2 billion people local solar power they can afford is within grasp — if we only think about the problem in a different way. In fact, the world can finish this job by 2020.

The poor already pay for light. They pay for kerosene and candles. And they pay a lot. The poorest fifth of the world pays one-fifth of the world’s lighting bill — but receives only .1 percent of the lighting benefits. Over a decade, the average poor family spends $1,800 on energy expenditures. Replacing kerosene with a vastly superior 40 Wp (Watts peak) home solar system would cost only $300 and provide them not only light, but access to cell-phone charging, fans, computers, and even televisions.

Kerosene costs 25 to 30 percent of a family’s income — globally that amounts to $36 billion a year. The poor do not use kerosene because it is
Kerosene often costs 25 to 30 percent of a family’s income. Yet the poor must rely on this expensive, dirty fuel.
cheap — they are kept poor in significant part because they must rely on expensive, dirty kerosene.

And the poor pay in other ways. A room lit by kerosene typically can have concentrations of pollution 10 times safe levels. About 1.5 million people, mostly women, die of this pollution every year, in addition to those who die from burns in fires.

So why do the poor use kerosene? Because they can buy a single day’s worth in a bottle, if that is all they can afford. For the poor, affordability has three dimensions: total cost, up-front price, and payment flexibility. Solar power comes in a panel that will give ten, or even 20, years of light and power — but the poor cannot afford a ten-year investment up front. And many cannot handle conventional finance plans, which require fixed payments regardless of their income that month.

Nor, for the record, do the electrified middle class pay for electricity up front. When I moved into my house in San Francisco, I did not get a bill for my share of the power plants and transmission grid that give me power each month. I pay as I go, based on how many kwh’s I use that month.

So lighting the lives of 1.2 billion people with off-grid renewable electricity requires three ingredients:
• Capital to pay for solar or other renewable electrical generation for 400 million households that depend on kerosene;
• Business models for those households to pay for the electricity they use, at the price it really costs, which is a lot less than kerosene;
• Financing, public policy, and partnerships to create the supply chains and distribution networks capable of getting distributed electrical systems to every household that needs them. (These needs might require $6 billion in credits and loan guarantees.)

The money is on the table. It’s just on the wrong plates. Purchase and finance of solar power for 1.2 billion people would cost about $10 billion a year over a decade. The 11 countries with the largest number of households without electricity spent $80 billion each year subsidizing fossil fuel — only 17 percent of which benefits the poor. In 2010, the World Bank spent $8 billion on coal-fired power plants, few of which provided meaningful energy access to the poor. The UN’s Clean Development Mechanism is proposing to give $4 billion a year to anything-but-clean coal-plants. So there is already far more capital in the system than is needed.

Even five years ago the business models did not exist to enable the poor to afford solar. Solar was much more expensive. The only alternative to buying a solar system with cash was a bank or micro-credit loan for which most of the poor could not qualify.

But the combination of dirt-cheap solar, the cell-phone revolution, and mobile phone banking has changed everything. There are almost 600 million cell-phone customers without electricity — using their phones very
Cell phone companies have a powerful motivation to get renewable power into rural areas.
little, still spending $10 billion to charge them in town. There are hundreds of thousands of rural, off-grid cell towers powered by diesel — at a price of about $0.70/kilowatt hour. All over the world cell-phone towers are being converted from diesel to hybrid renewable power sources. So cell phone companies have a powerful motivation to get renewable power into rural areas, to get electricity to their customers, and to charge for electricity through their mobile phone payment systems.

At least three commercial models have been launched in the last several months. India’s Simpa Networks — in partnership with SELCO in India and DT-Power in Ghana, India and Kenya — are testing models in which solar distributors can allow customers to pay for electricity through mobile banking “pay as you go” plans. Zimbabwe’s Econet Power has launched an even more intriguing model, in which it provides its cell-phone customers with solar power as a customer benefit, charging them only $1 week to use a home solar system provided by Econet, with the bills tied to the customer’s cell phone account.

UN Secretary General Ban Ki-moon has proclaimed 2012 the Year of Universal Energy Access. His initiative is keyed not to the UN climate talks, but to the Rio +20 Earth Summit talks scheduled for June.

Imagine that at Rio, instead of embracing business-as-usual solutions to energy access, the world decided to empower the poor with the electricity they can truly afford — distributed solar?

What would the benefits be? In carbon terms alone, kerosene for lighting emits almost as much greenhouse-gas pollution as the entire British economy. 1.5 million lives a year would be saved from respiratory ailments. The available income for the world’s poorest fifth would be increased by 25 to 30 percent — a pretty big development bang-for-the-buck. Numerous studies have shown that providing basic energy access increases household income by 50 percent or more by providing more time and opportunities for home-based income generation.
But the leverage is actually much greater. If one-fifth of the world is on solar, as these people prosper and can afford more electricity, they are going to expand solar systems, rather than turning to coal or nuclear. Their neighbors include the one-third of humanity with “spasmodic” electricity — wires that in rural areas work only at night, and in urban areas go down in the afternoon. These customers would find distributed solar far more reliable than the current grid. If we add those 2 billion to the 1.2 billion who are not on the grid, virtually half of humanity could be turning to renewable power as the cheapest, most reliable and most available form of energy. The fossil fuel interests would lose completely their current moral argument — that more carbon will power the poor.

That, I would argue is a phenomenal game-changer — and a powerful first step in building a trusting, low-carbon coalition of rich and poor nations. And that coalition could lay the groundwork for the more challenging global efforts that will be needed to stabilize and eventually restore the climate.

POSTED ON 04 JAN 2012 IN

*ABOUT THE AUTHOR
Carl Pope, chairman and former executive director of the Sierra Club, has served on the boards for the National Clean Air Coalition, California Common Cause, and Public Interest Economics Inc. A regular contributor to the Huffington Post, he co-wrote the book Strategic Ignorance: Why the Bush Administration Is Recklessly Destroying a Century of Environmental Progress, which was published

Achieving Global Consensus on PV Grid parity

Qualified Opinion Sources are kindly invited to express their opinion on a specific website: www.SolarGridParity.com

on the following debate:

By 2020 or earlier the installed costs for solar electricity systems will be reduced to US$1 per watt

Background: Due to strong incentives, mainly within the EU, global solar photovoltaic market has significantly grown during 2010, with the whole PV installed capacity having reached almost 40GW, or up 70% from nearly 23GW in 2009. The strong expansion in PV installations was mainly dominated by the European countries, with about 70% of the new solar power installations in 2010, with Germany leading the PV market accounting for almost 7GW and Italy with about 3GW, followed by Czech Republic (1.3GW), France (0.5GW), Spain (0.4), Belgium (0.25) and Greece (0.2). As for the main markets outside Europe, Japan PV market accounted for nearly 1GW, followed by the United States (0.8GW) and China (0.4GW).

The US administration and the Chinese government are both aiming at achieving price parity between solar electricity and fossil-based electricity without additional subsidies. Reaching this goal will establish the country’s technological leadership, improve the nation’s energy security, and strengthen economic competitiveness in the global clean energy race.

President Obama laid down a bold challenge to America in his State of the Union speech January 2011: “get to 80% clean energy by 2035.”

Ms. Eleni Despotou, Secretary General of the European Photovoltaic Industry Association (www.interpv.net): “PV electricity would see its generation costs dropping to a range of 5 to 12 c / kWh by 2020, making it highly competitive with all peak generation technologies, and as low as 4 to 8c/kWh in 2030, making it also widely competitive with most mid-load generation technologies.”

 

On the other hand we hear every day: “Solar is too expensive” or “Variable costs related to permitting, inspection and interconnection are killing the solar industry’s ability to achieve speed and scale”.   .

Mr. Amnon Samid, CEO, The AGS group  (www.AGSpower.com):  “Encouraging investment only in PV systems will jeopardize the chances to develop a competitive solar thermal mini-grid distributed  generation solutions for electricity production, that may enjoy the advantages of PV systems, but offers also storage capabilities and hybrid, co-generation and on-site power production options, occupying less expensive land for extended use, making it competitive with base load generation technologies, representing an alternative for new generation capacity  in Sunbelt countries.”

The U.S. Department of Energy (DOE) SunShot Initiative aims to restore America’s once-dominant position in the global market for solar photovoltaic (PV), which has dwindled from 43% in 1995 to only 6% today. DOE estimates that if the installed costs for solar energy systems drop to $1 per watt — equivalent to a levelized cost of electricity of 5-6 cents per kilowatt hour — solar without subsidies would be competitive with the wholesale rate of electricity nearly everywhere in the U.S. The DOE intend to devote $200 million per year — to support a targeted roadmap to meet the SunShot goal by the end of the decade.

However, the “64 million dollar question” is:

Is it a realistic goal?

You are invited to express your professional opinion by answering three brief questions at: www.SolarGridParity.com

The BiPSA methodology aims to convert

Controversy-to-Consensus

www.BiPSA.com

 in collaboration with the AGS Group www.AGSpower.com

Promoting and enabling the incorporation of innovative clean energy technologies into the grid.

Evaluating whether clean energy technological breakthroughs are realistic for achieving grid parity & how can we make it happen?

Key addressing on policy & implementation matters at the Eilat-Eilot Renewable Energy conference Feb 2010 (*) as presented by Amnon Samid, Executive Chairman, the AGS group:

• Addressing the challenges of grid integration for renewables from the transmission perspective.

• Distributed energy generation as key to deploying advanced clean energy technologies.

• Adopting the grid to be able to integrate different unstable sources of energy, incorporate energy storage, distribution automation and distribution management systems and improving frequency stability of grids that incorporate remote clean energy sources.

• Applying smart grid vision globally – a global link which uses AC and DC transmissions.

• Is not it a shame wasting hundreds of millions during the last decade on subsidizing PV integrators, instead of investing these money in developing new technologies that will not require governmental incentives and replace all use of fossil fuel for electricity production and transportation?

• Presenting the ‘big picture’ beyond subsidies and feed-in tariffs – insight into the future of developing new technologies and evaluating whether technological breakthroughs are realistic for achieving grid parity and how we can make it happen (Manhattan-like clean energy projects).

Samid also encouraged Lenders to take the risks in financing renewable energy projects that are based on new technologies, which are not defined yet as “bankable”, while presenting the main risk factors and mitigation required:

 • Technology, which should be mitigated by proven design or tested Equipment (especially when it’s not a proven technology). • Suppliers, which should be mitigated by their references, track record, experience and financial strength and warrantees.

• EPC, which could be mitigated by performance guarantee and ongoing measurements of performance & degradation.

• Developers, especially their credibility, track record and risk profile.

• O&M, which should be mitigated by track record of the contractor, warranties for availability, performance guarantees & degradation, spare parts management and O&M budget.

• Operation strategy & Performance model for the lifetime of the project.

• Financial model, which should include exposure to risks involved in fluctuations in Interest rates, currencies rates, seasonal factors etc., while especially it’s important to make sure that low probability scenarios will still result in sufficient revenues to repay the loan.

 • Solar resources, especially the basis and accuracy of historic irradiation data and assessment of future irradiation data.

• Infrastructure, Permits and Licenses, including space constrains, access roads, availability of fossil fuels, water availability, flood protection, transmission facilities, geotechnical & environmental assessments.

• Revenue which is controlled by all the above and the Power Purchase Agreement [PPA].

 —–

(*) The conference brought together major leaders on clean & renewable energy — technology experts, academic researchers, regulators, policy makers, consumers, financial experts, industry leaders, utilities, start-up companies along with influences from the US, Europe & Africa.

• Amnon Samid was moderating a panel with key decision makers analyzing the current situation of clean & renewable energy industry in Israel

Will SolarReserve defeat its competition?

“The brainchild of rocket scientists and a private equity group specialized in renewable energies, SolarReserve, the solar energy development company, is primed to be a winner in the concentrated solar power sector.

United Technology subsidiary, Pratt & Whitney Rocketdyne, has combined its liquid rocket engine heat transfer technology and molten salt handling expertise to develop a unique tower receiver technology with thermal storage capabilities – for which SolarReserve is the exclusive license holder.

Another key ingredient is SolarReserve’s founding partner – the US Renewables Group, a US$575 million private equity firm exclusively focused on renewable power and clean fuel projects.

And finally: the team.  SolarReserve’s blend of professionals from the energy, technology and finance industries are proving to be a knockout combination.” [Source: CSP TODAY].

Competition:

 Parabolic troughs, which have been in operation since the mid-1980′s, are currently the most commercial technology and hence the main competitor for any solar thermal technology. Parabolic trough plants have proven a maximum efficiency of 21% (with an average of 12% to 15%) for the conversion of direct solar radiation into grid electricity. While the plants in California uses synthetic oil as heat transfer fluid in the collectors, efforts to achieve direct steam generation within the absorber tubes in order to reduce costs further did not achieve a viable system so far.

 Another option is the approximation of the parabolic trough by segmented mirrors according to the principle of Fresnel. Although this will reduce efficiency, it shows a considerable potential for cost reduction. The close arrangement of the mirrors requires less land and provides a partially shaded, useful space below.

 Despite improvements in performance of the parabolic troughs new generations, the cost of electricity with solar only is relatively high.  Hence lower limit of costs (through Feed-In-Tariff (FIT) or competition) will not enable this technology to be competitive for the long run. For larger scale power generation, Central receivers, which utilize a collection of heliostats – mirrors which track the sun and concentrate the radiation onto a central receiver located at the top of a tower – hold out a huge potential for lower costs. Concentrating the sunlight enables heating a heat transfer fluid up to 1200ºC and higher. Today, molten salt or air or water is used to absorb the heat in the receiver. The heat may be used for steam generation or making use of the full potential of this high-temperature technology – to drive gas turbines. For gas turbine operation, the air to be heated must pass through a pressurized solar receiver with a solar window. Combined cycle power plants (like Aora’s) require about 30% less collector area than equivalent steam cycle.

 Another option is based on Parabolic Dish, which are relatively small concentrators that have a motor-generator or a turbo-generator in the focal point of the reflector. This generator may be based on Stirling engine or a gas turbine. Because of their size, they are particularly suited for decentralized electricity supply and remote stand alone systems. Dishes up to 400m² have been built and other even larger are being currently designed. Although significant progress has been made on most major components including the high performance dish, it is too early to determine whether the promises of developing a simple, low cost and very reliable engine will be realized by new designs. Moreover, this technology is inherently nondispatchable without storage or fuel backup, so can not reach utility’s dispatch requirements. 

 

 

“Is the average consumer willing to pay the upfront costs of a new smart grid and then respond appropriately to price signals?

 Republican Sen. Lisa Murkowski of Alaska said at a recent hearing on smart grid.

Energy Secretary Steven Chu worry about security. “If you want to create mischief one very good way to create a great deal of mischief is to actually bring down a smart grid system. This system has to be incredibly secure,” Chu said.

 On the other hand, Chu says that the current grid stands in the way of increasing the use of renewable energy sources such as wind and solar that “will need a system that can dispatch power here, there and everywhere on a very quick basis.”

According to an article at Associate Press today, the “smart grid” has become the buzz of the electric power industry, at the White House and among members of Congress. President Barack Obama says it’s essential to boost development of wind and solar power, get people to use less energy and to tackle climate change. What smart grid visionaries see coming are home thermostats and appliances that adjust automatically depending on the cost of power; a world where a water heater may get juice from a neighbor’s rooftop solar panel, where on a scorching hot day a plug-in hybrid electric car charges one minute and the next sends electricity back to the grid to help head off a brownout. It is a world where utilities get instant feedback on a transformer outage, shift easily among energy sources, integrating wind and solar energy with electricity from coal-burning power plants, and go into homes and businesses to automatically adjust power use based on prearranged agreements.

However, without development of NEW clean energy technologies to transfer over the smart grid and without and robust technologies to protect the smart system against intrusion and evil shut down – the game is not worth the candle……

Clean Energy “Apollo project” (40 years to the success of the first Apollo project)

We should urgently pursue a project for developing  technologies that can make a difference, to get rid of world dependence on oil, with the same vigor that the U.S. pursued the famous “Apollo project” (tomorrow 40 years anniversary).

Every nation on this planet is at risk.  And just as no one nation is responsible for climate change, no one nation can address it alone.  ….And it is why we have gathered again here today. –President Barack Obama. 

 Al Gore:  There has never been a better time than now for making the change we need in dealing with the climate crisis …  This is truly a new era of hope and opportunity for our cause.

We welcome individuals to contribute their solutions, ideas, words, and images.

Stay alert: Details will come soon….Kick-off is expected in February 2010.

www.energysummit2010.com

Europe may loose PV leadership

The U.S. and China will soon pass Europe as the leading photovoltaics region. The factors determining these market dynamics will be price pressure and, in the case of the USA, political support for renewable energies, market researcher Frost & Sullivan finds.
 
MUNICH, Germany — The U.S. and China will soon pass Europe as the leading photovoltaics region. The factors determining these market dynamics will be price pressure and, in the case of the USA, political support for renewable energies, market researcher Frost & Sullivan finds.China will drive down the price for polysilicon and solar modules — with the effect that it will be able to strengthen its leading position as solar module supplier for global markets, a Frost & Sullivan study finds.

“When it comes to solar cells and modules, the Asian vendors are expanding aggressively,” said Frost & Sullivan Green Energy Research Manager Alina Bakhareva. “Low costs and increasingly technical expertise will help China to gain and increase its foothold in the global solar market. In particular European and Japanese competitors will suffer.”

Competition pressure will grow also from the side of the US which increasingly discover renewable energies as a future market. “The USA hitherto have used only a fraction of its huge potential,” Bakhareva stated. “They have all it takes to develop a strong and well diversified solar market.”

Europe clearly will lose market share, despite its advantages, the researcher said. When the competition heats up, the region can build on three important factors: A solid research landscape, competitive production and public incentives. These incentives however are decreasing, and the economy crisis with difficult access to capital will put smaller market participants such as retailers more under pressure than large projects. This will lead to what Frost & Sullivan calls a healthy slimming process. Nevertheless, the long-term trend towards renewable will remain unbroken, in particular towards solar energy.

In terms of local markets within Europe, Germany is seen to continue to have a strong position. Many large manufacturers currently are in the process of expanding their capacity or build new solar plants.

France, in contrast to Germany, tends to focus only on building-integrated PV applications since their operators are receiving the highest benefits due to the regulation situation. “While France achieved good growth rates over the past five years, we have the impression that the market would have developed better if politics would have treated all types of installations equally”, criticizes the Frost & Sullivan researcher.

While Spain also has become a major player in the solar game, public incentives have been reduced; Bakhareva estimates that the amount of new installations in 2009 will decline in comparison to 2008.

Italy and Greece are “sleeping giants”, the market sesearcher finds. The reason is that these countries have a high potential and attractive feed-in-tariffs. Administrative hurdles however keep the sleeping giants from unfolding their potential

 
 Source:
Christoph Hammerschmidt

Frost & Sullivan

$13.5 billion of new private investment went into companies developing and scaling-up new technologies

 Total transaction value in the sustainable energy sector during 2008 – including corporate acquisitions, asset re-financings and private equity buy-outs – was $223 billion, an increase of 7% over 2007. But capital raised via the public stock markets fell 51% to $11.4 billion as clean energy share prices lost 61% of their value during 2008. Investment in the second half of 2008 was down 17% on the first half, and down 23% on the final six months of 2007, a trend that has continued into 2009.

On a regional basis, investment in Europe in 2008 was $49.7 billion, a rise of 2%, and in North America was $30.1 billion, a fall of 8%. These regions experienced a slow-down in the financing of new renewable energy projects due to the lack of project finance and the fact that tax credit-driven markets are mostly ineffective in a downturn.

With developed country market growth stalled (down 1.7%), developing countries surged forward 27% over 2007 to $36.6 billion, accounting for nearly one third of global investments. China led new investment in Asia, with an 18% increase over 2007 to $15.6 billion, mostly in new wind projects, and some biomass plants.

Investment in India grew 12% to $4.1 billion in 2008. Brazil accounted for almost all renewable energy investment in Latin America in 2008, with ethanol receiving $10.8 billion, up 76% from 2007. Africa achieved a modest increase by comparison, with investments up 10% to approximately $1.1 billion.

 Source: UNEP

Candidates for the Board of the First multi-national Task Force for 100% Renewable Energy?

 www.OilAway.org,

The Board will be established at the Energy Summit in 2010: http://www.energysummit2010.com/

  [The Apollo/Manhattan Clean Energy project was first announced by Amnon Samid at the Eilot International Renewable Energy Conference in Feb 2009] 

Martin Hoffert‏
Department of Physics, New York University
Ken Caldeira
Carnegie Institution / Stanford University
John Katzenberger
Aspen Global Change Institute
David Archer
Department of Geophysical Sciences, University of Chicago
Maurice Averner
Ames Research Center, NASA
Scott Barrett
School of Advanced International Studies, Johns Hopkins University
Gregory Benford
Department of Physics, University of California, Irvine
Baruch Blumberg (Nobel laureate)
Fox Chase Cancer Center / University of Pennsylvania
Paul Crutzen (Nobel laureate)
University of California (San Diego) / Max Planck Institute for Chemistry
William Fulkerson
Institute for a Secure and Sustainable Environment, University of Tennessee
Christopher Green
Department of Economics, McGill University
Susan Hassol
Climate Communication
Eric Hoffert
Versatility Inc.
Thomas Homer-Dixon
Trudeau Center for Peace and Conflict Studies, University of Toronto
Feng Hsu
Goddard Space Flight Center, NASA
Mark Jacobson
Civil and Environmental Engineering, Stanford University
David Keith
Institute for Sustainable Energy, Environment and Economy, University of Calgary
Geoffrey Landis
Glenn Research Center, NASA
Jane C. S. Long
hydrogeologist and geotechnical engineer
Michael MacCracken
Climate Institute, Washington, DC
John C. Mankins
Sunsat Energy Council / Managed Energy Technologies
Michael E. Mann
Earth System Science Center, Pennsylvania State University
Gregg Marland
International Institute for Applied Systems Analysis
Mark Nelson
Institute of Ecotechnics, Santa Fe, NM
Darel Preble
Space Solar Power Institute, Georgia Institute of Technology
Gregory H. Rau
Institute of Marine Sciences, University of California, Santa Cruz
Steve Rayner
Said Business School, Oxford, UK
Kim Stanley Robinson
Author, “Forty Signs of Rain”
Gregory Dennis Sachs
Alternative Power Program, US Merchant Marine Academy
Thomas Schelling (Nobel laureate)
Department of Economics, University of Maryland
Michael Schlesinger
Atmospheric Sciences, University of Illinois, Urbana-Champaign
Steven E. Schwartz
Brookhaven National Laboratory, Department of Energy
John Turner
National Renewable Energy Laboratory, Department of Energy
Tyler Volk
Department of Biology, New York University
Tom M. L. Wigley
National Center for Atmospheric Research
Steven C. Wofsy
School of Engineering and Applied Science / Department of Earth and Planetary Science, Harvard University
Lowell Wood
Hoover Institution / Stanford University

Dear ______,

Dear Member of Congress,

We the undersigned urge you to accelerate our transition to a clean energy economy with the ambition of an Apollo or Manhattan program, by dramatically increasing America’s investment in innovative new energy technologies and systems.

A wide range of policies aimed at increasing conservation, efficiency, and reducing emissions is vital, but carbon prices and regulations alone will not create new, clean and affordable energy systems soon enough or at the scale needed.

America should be ramping up to invest a minimum of $30 billion per year to develop, demonstrate, and stimulate the commercialization of a range of technologies and approaches that can provide affordable carbon-neutral energy and use that energy more wisely. This is less than half of what America already invests in military research and development.

The United States is in a unique position to take the lead in this research and development effort, but we must work with others. The world, including China, India and other developing nations, needs affordable clean technologies now to avoid the lock-in of massive carbon emissions from conventional coal plants.

Energy sources available today cannot provide enough power to drive economic growth without damaging our climate system. We cannot predict with confidence which energy technologies will win in a future marketplace. For this reason, we need a diverse and strategically selected portfolio of investments. Potential solutions need to be explored and tested with hardware. Because the taxpayer dollar should be invested wisely, a relatively open process should be established that will select and support research and development projects based on technical merits.

Public investment in clean energy will more than pay for itself, just as did the U.S. government investment in computer science and aerospace during the 1950s and ’60s. Much of our economic growth since World War II resulted from technological developments that were accelerated and incubated by public investment – the Internet being only one example. Particularly critical are technologies that can be commercialized in five to twenty-five years — too long for venture capital, too short for basic research. Private firms are not making — and cannot be expected to make – the necessary level of long-term investments in energy and energy infrastructure research and development.

The major problems confronting the nation and world require clean, secure, and affordable energy.

Sustained public investment now in a diverse portfolio of energy technologies will reduce climate risk, increase energy security, revitalize education, enhance our competitiveness, and strengthen the American economy.

Sincerely*,

 

India-EU Science and Technology Cooperation Agreement as part of the European Commission’s Seventh Framework of Research

The 2009 India-EU Call on Solar Energy System to be announced in July 2009 will facilitate India-EU Project mode partnerships with a view to:

  • Catalyzing emergence of solar power as an economically viable, commercially attractive, environment friendly and sustainable energy option;
  • Advancing the transition to clean energy technologies (such conversion of solar radiation into electricity using ST,CSP/SPV) ) that are sustainable, affordable, add to energy security and have no adverse impact on climate;
  • Building institutional tie-ups with EU partners to incubate feasibility of and/or scaling up of research, pilot scale production and creation of new knowledge with output in the form of joint patents and co-authored publications;
  • Achieving cost reduction , higher efficiency & reliability of solar photovoltaic devices and systems;
  • Improving design, fabrication and demonstration of innovative solar thermal power generating technology

Looking for partners…. eu@ags-tech.com