Boom das renováveis perto do fim?

5 de Outubro, 2009

Sucedem-se os artigos com dados estatísticos sobre o abrandamento do investimento privado, e sobretudo público, no sector das energias renováveis. Basicamente os argumentos são estes:

  1. as energias renováveis —eólica, solar, bio e mini-hídrica— são substancialmente mais caras do que a energia eléctrica oriunda das centrais nucleares existentes, dos hidrocarbonetos, das grandes barragens e das redes de distribuição instaladas;
  2. o financiamento destas energias tem dependido até agora de subsídios públicos directos e indirectos, de garantias estatais à realização de contratos público-privados (PPP, etc.) e de arquitecturas várias de investimento privado especulativo;
  3. a crise de endividamento mundial que atinge muito fortemente as economias norte-americana e europeia, entre outras, agravada pela explosão da bolha de crédito barato e fácil, a qual começou pela crise hipotecária do Subprime, se agravou com a falência do sistema financeiro assente na hegemonia da moeda americana, e prossegue sob a influência nefasta da implosão dos mercados de Derivados (future contracts, Credit Default Swaps, Edges Funds, OTC Derivatives, etc.), bem assim como do especulativo mercado cambial, conhecido por Forex, de que o chamado Carry Trade é um dos venenos mais letais para a economia global;
  4. a mudança de paradigma energético conduz a inúmeras falências, deslocalizações e desemprego: por cada emprego criado no sector das energias renováveis, o qual custou em Espanha, até agora, entre 500 mil e 1 milhão de euros, são destruídos em média 2,2 postos de trabalho, ou, por cada MW “verde” instalado são destruídos em média 5,28 empregos — 8,99 pela fotovoltaica, 4,27 pela eólica e 5,05 pelas mini-hídricas (ler Renováveis implodem em Espanha).

Renewables Q3 Investment Down on Q2

5-10-2009, London, UK [RenewableEnergyWorld.com]

Latest figures from analysis firm New Energy Finance (NEF) show that total worldwide new financial investment in clean energy totaled $25.9 billion in the third quarter of 2009, down 9% from a revised Q2 total of $28.6 billion, but still markedly ahead of the dramatic low of $13.3 billion reached in Q1.

…Narrowing its forecast range for full-year 2009 total new investment to $105-$115 billion, in the upper band of the previous forecast range of $95-$115 billion, New Energy Finance still expects that total new investment in clean energy is likely to exceed $300 billion per year by 2020, but this is well below the $500 billion per year that would be required to limit the rise in global temperatures to two degrees Centigrade or less, the company argues.

…Michael Liebreich, chairman and chief executive of New Energy Finance, commented: “It is heartening to see that the collapse in investment seen in the first quarter of this year is firmly receding in the rear-view mirror. However, the financing environment remains difficult, with undue reliance on stimulus funds, development banks and state-backed capital providers of various sorts. Most significantly, the levels of investment required to bring global carbon emissions to a peak during the coming decade are as far out of reach as ever – particularly significant given the rapidly-approaching Copenhagen deadline.”

Por outro lado cresce a pressão dos argumentos ambientalistas, para quem o aquecimento global provocado pelo aumento de partículas de CO2 na atmosfera tem vindo a agravar-se mais depressa que o previsto pelo próprio Painel Intergovernamental para as Alterações Climáticas (IPCC).

Wind Power Could Supply Global Electricity Needs 40 Times Over. By Dr. Mae-Wan Ho.

Wind turbines on land could provide more than 40 times the world’s current electricity consumption or over five times its total energy needs. That’s the latest assessment using wind data from meteorological sources. A network of 2.5-megawatt (MW) turbines on land restricted to non-forested, ice-free, nonurban areas operating at as little as 20 percent of their rated capacity would do the trick; allowing for the fact that the wind does not blow constantly. To put this into perspective, wind turbines installed in the US in 2004 and 2005 operate on average 36 percent of rated capacity.

For the United States, the central plain states could accommodate enough wind turbines to provide as much as16 times its total current demand for electricity.

Wind power is on a steep ascent. It accounted for 42 percent of all new electrical capacity added to the US in 2008; but it is still only a tiny fraction of the total capacity, 25.4 GW out of 1 075GW. The Global Wind Energy Council projected a 17-fold increase in wind-powered generation of electricity globally by 2030. [Read more here]

Green Energies 100% Renewables by 2050.
By Mae-Wan Ho, Brett Cherry, Sam Burcher & Peter Saunders

Global warming is happening much faster than the IPPC (Intergovernment Panel on Climate Change) predicted in its latest 2007 report. For one thing, its climate models failed to account for the rapid summer melting of the polar ice caps that’s been making headlines several years in a row.

The IPCC helped set the target of 450 ppm maximum of atmospheric CO2, which they thought would limit the global temperature rise to below 2 ˚C, and prevent “dangerous anthropogenic interference with the climate system.”

But top climate scientists Jim Hansen and colleagues, using more realistic climate models and key data from the remote history of the earth, showed that 450 ppm is well beyond the danger zone, and we must even reduce the current 385 ppm atmospheric CO2 down to 350 ppm, or else face “irreversible catastrophic effects”. And the head of IPCC Rajendra Pachauri now agrees.

The good news is that we can still do it. It is not too late. All it takes is to stop burning fossil fuels in order to bring 385 ppm back down to 350 ppm within the next decades. But we must act now, because 385 ppm is already within the danger zone, and we cannot afford to let it remain there for too long, or we push the planet past the point of no return.

That is why we need to commit ourselves to truly green energies as a matter of urgency. [Read more here].

Renováveis implodem em Espanha

27 de Setembro, 2009

LESSONS FROM THE SPANISH RENEWABLES BUBBLE

Europe’s current policy and strategy for supporting the so-called “green jobs” or renewable energy dates back to 1997, and has become one of the principal justifications for U.S. “green jobs” proposals. Yet an examination of Europe’s experience reveals these policies to be terribly economically counterproductive.

This study is important for several reasons. First is that the Spanish experience is considered a leading example to be followed by many policy advocates and politicians. This study marks the very first time a critical analysis of the actual performance and impact has been made. Most important, it demonstrates that the Spanish/EU-style “green jobs” agenda now being promoted in the U.S. in fact destroys jobs, detailing this in terms of jobs destroyed per job created and the net destruction per installed MW.

The study’s results demonstrate how such “green jobs” policy clearly hinders Spain’s way out of the current economic crisis, even while U.S. politicians insist that rushing into such a scheme will ease their own emergence from the turmoil.

5. Despite its hyper-aggressive (expensive and extensive) “green jobs” policies it appears that Spain likely has created a surprisingly low number of jobs, two- thirds of which came in construction, fabrication and installation, one quarter in administrative positions, marketing and projects engineering, and just one out of ten jobs has been created at the more permanent level of actual operation and maintenance of the renewable sources of electricity.

7. The study calculates that since 2000 Spain spent €571,138 to create each “green job”, including subsidies of more than €1 million per wind industry job.

8. The study calculates that the programs creating those jobs also resulted in the destruction of nearly 110,500 jobs elsewhere in the economy, or 2.2 jobs destroyed for every “green job” created.

9. Principally, the high cost of electricity affects costs of production and employment levels in metallurgy, non-metallic mining and food processing, beverage and tobacco industries. 10. Each “green” megawatt installed destroys 5.28 jobs on average elsewhere in the economy: 8.99 by photovoltaics, 4.27 by wind energy, 5.05 by mini-hydro.

10. Each “green” megawatt installed destroys 5.28 jobs on average elsewhere in the economy: 8.99 by photovoltaics, 4.27 by wind energy, 5.05 by mini-hydro.

14. The price of a comprehensive electricity rate (paid by the end consumer) in Spain would have to be increased 31% to being able to repay the historic debt generated by this rate deficit mainly produced by the subsidies to renewables, according to Spain’s energy regulator.

15. Spanish citizens must therefore cope with either an increase of electricity rates or increased taxes (and public deficit), as will the U.S. if it follows Spain’s model.

16. The high cost of electricity due to the green job policy tends to drive the relatively most electricity-intensive companies and industries away, seeking areas where costs are lower. The example of Acerinox is just such a case.

17. The study offers a caution against a certain form of green energy mandate. Minimum guaranteed prices generate surpluses that are difficult to manage. In Spain’s case, the minimum electricity prices for renewable-generated electricity, far above market prices, wasted a vast amount of capital that could have been otherwise economically allocated in other sectors. Arbitrary, state-established price systems inherent in “green energy” schemes leave the subsidized renewable industry hanging by a very weak thread and, it appears, doomed to dramatic adjustments that will include massive unemployment, loss of capital, dismantlement of productive facilities and perpetuation of inefficient ones.

18. These schemes create serious “bubble” potential, as Spain is now discovering. The most paradigmatic bubble case can be found in the photovoltaic industry. Even with subsidy schemes leaving the mean sale price of electricity generated from solar photovoltaic power 7 times higher than the mean price of the pool, solar failed even to reach 1% of Spain’s total electricity production in 2008.

19. The energy future has been jeopardized by the current state of wind or photovoltaic technology (more expensive and less efficient than conventional energy sources). These policies will leave Spain saddled with and further artificially perpetuating obsolete fixed assets, far less productive than cutting- edge technologies, the soaring rates for which soon-to-be obsolete assets the government has committed to maintain at high levels during their lifetime.

20. The regulator should consider whether citizens and companies need expensive and inefficient energy – a factor of production usable in virtually every human project- or affordable energy to help overcome the economic crisis instead.

22. Renewable technologies remained the beneficiaries of new credit while others began to struggle, though this was solely due to subsidies, mandates and related programs. As soon as subsequent programmatic changes take effect which became necessary due to “unsustainable” solar growth its credit will also cease.

23. This proves that the only way for the “renewables” sector – which was never feasible by itself on the basis of consumer demand – to be “countercyclical” in crisis periods is also via government subsidies. These schemes create a bubble, which is boosted as soon as investors find in “renewables” one of the few profitable sectors while when fleeing other investments. Yet it is axiomatic, as we are seeing now, that when crisis arises, the Government cannot afford this growing subsidy cost either, and finally must penalize the artificial renewable industries which then face collapse. —— in Study of the effects on employment of public aid to renewable energy sources, by Gabriel Calzada Álvarez PhD.

Comentário: na linha do post anterior, a leitura deste explosivo relatório produzido pela Universidade Rey Juan Carlos, merece uma leitura atenta e a extracção das devidas ilações, nomeadamente para o caso português. — CS

Bolha solar rebenta em Espanha

19 de Setembro, 2009
O fim da bolha fotovoltaica?

O fim da bolha fotovoltaica?

Spain’s Solar-Power Collapse Dims Subsidy Model
By ANGEL GONZALEZ and KEITH JOHNSON (WST)

Spain’s hopes of becoming a world leader in solar power have collapsed since the Spanish government slammed the brakes on generous subsidies.

The sudden change has rippled across the global solar industry, in a warning of the problems that government-supported renewable-energy programs can encounter.

Valerá a pena insistir em projectos de microgeração subsidiada?

Não é possível rentabilizar um investimento em microgeração fotovoltaica ligada à rede em menos de 6 anos. Ora seis anos, no actual quadro de desorganização mundial da economia, e sobretudo do sistema financeiro, é muito tempo! Os benefícios governamentais e fiscais estão por um fio. A recessão global e o imparável deslizamento do dólar americano fazem cair os preços reais do petróleo. O crescimento previsto dos consumos energético está posto em causa. O excessivo endividamento dos grandes fornecedores de energia eléctrica, seja na especulação bolsista, nas operações de crescimento por aquisição e fusão de empresas, ou nos investimentos colossais nas energias eólica e fotovoltaica, anuncia uma inflação dos preços da energia junto dos consumidores a curto e médio prazo. Como disse, com grande frieza, o presidente da Iberdrola, Ignacio Sánchez Galán, “a energia solar era um produto financeiro, não uma solução energética”. Numa palavra, o boom fotovoltaico acabou! — CS.

Top 5 das escolas verdes

3 de Setembro, 2009

Ora aqui está uma estratégia indirecta para orientar a arquitectura escolar para novos paradigmas de eficiência energética e sustentabilidade.

Top 5 Greenest Schools

With back to school season in full swing, we couldn’t help but wonder which colleges and universities are rated at the top of the green class. And with all the research that high school Juniors and Seniors put into selecting their future higher education institution, sustainable initiatives on campuses are becoming an increasingly important thing to consider. We did a little due diligence of our own with the help of Sierra’s Top Cool Schools, the Princeton Review’s Green Score card, and Greenopia’s University Ranking Guide, to save you the hassle. Here’s our report of the five schools that consistently make the green top 10. — in Inhabitat.

Carros eléctricos: uma aposta difícil

9 de Agosto, 2009

O artigo que abaixo citamos, do McKinsey Quartely, sobre as tendências que estão a marcar o passo à generalização do uso do automóvel eléctrico privado —na realidade, um híbrido de combustível fóssil e baterias— ajuda-nos a perceber duas realidades:

  1. que há um balanço a fazer entre os impactos reais de ambas as tecnologias, medindo os custos em CO2 desde o início da cadeia de produção das baterias até ao seu uso efectivo (from well to wheel);
  2. que a transição dos veículos 100% petróleo para os híbridos poderá não ser atractiva antes de 2020, e mesmo assim precisará de vultuosos subsídios, isenções fiscais e outros apoios públicos.

Os grandes custos desta transição podem mesmo torná-la parcialmente inviável! Em primeiro lugar, porque será necessário reconverter dramaticamente toda a indústria automóvel actual. Em segundo lugar, porque será necessário, não apenas montar uma nova e gigantesca indústria de produção e carga de baterias, próxima das fontes primárias de geração eléctrica (minas de carvão, barragens, parques eólicas, centrais solares), mas também criar uma imensa rede de pontos de carga nos parques de estacionamento, estações de combustíveis, ruas, etc. Em terceiro lugar, porque será imprescindível descobrir uma solução economicamente viável e limpa para as lixeiras especializadas na reciclagem e armazenamento dos milhões de baterias mortas oriundas desta anunciada mudança de paradigma.

Por todas estas ordens de razões parece aconselhável iniciar a anunciada revolução do transporte sustentável, pelos veículos de transporte público, colectivo e individual (trolley cars, carros eléctricos sobre carris, comboios, táxis, etc.), e pelos veículos de transporte de mercadorias (comboios).  — CS.

Electrifying cars: How three industries will evolveMcKinsey Quartely.

Upon entering the mainstream—in a few years or a couple of decades—electrified cars will transform the auto and utilities sectors and create a new battery industry. What will it take to win in a battery-powered age?

JUNE 2009 • Russell Hensley, Stefan Knupfer, and Dickon Pinner
Source: Climate Change Special Initiative

It’s a safe bet that consumers will eventually swap their gas-powered cars and trucks for rechargeable models. Electrified transport, in some form, would seem to be in our future. But how long will investors have to wait for the bet to pay off? Years? Decades?

Bears would bet on decades. For the next ten or so years, the purchase price of an electrified vehicle will probably exceed the price of an average gas-fueled family car by several thousand dollars. The difference is due largely to the cost of designing vehicles that can drive for extended distances on battery power and to the cost of the battery itself. What’s more, the infrastructure for charging the batteries of a large number of electrified vehicles isn’t in place, nor is the industry tooled to produce them on a mass scale. In any case, consumers aren’t exactly clamoring for battery-powered sedans.

The economics of electrified vehicles start with the batteries, whose cost has been declining by 6 to 8 percent annually. Many analysts predict that it will continue to fall over the next ten years as production volumes rise. Battery packs now cost about $700 to $1,500 per kilowatt hour, but that could drop to as little as $420 per kilowatt hour by 2015 under an aggressive cost reduction scenario. Even then, the upfront purchase price of electrified cars would be quite high. We estimate that by 2015, a plug-in hybrid-electric vehicle with a battery range of 40 miles (before the need for a recharge) would initially cost $11,800 more than a standard car with a gas-fueled internal-combustion engine. A battery-powered electrified vehicle with a range of 100 miles would initially cost $24,100 more.

Subsidies could help bridge the difference. China announced that it will cover $8,800 of the cost of each electrified vehicle purchased by more than a dozen of its large-city governments and taxi fleets. Business innovation could address costs too. In the solar-technology market, for instance, SunEdison owns, finances, installs, operates, and maintains solar panels for customers willing to adopt the technology. The company then charges these consumers a predictable rate lower than the one they paid for traditional electric power but higher than the actual cost of generation. That allows the company to recoup its capital outlay and make a profit. Innovators are considering similar models to cover the battery’s upfront cost and recoup the subsidy by charging for services. — in McKinsey Quartely .

Portugal: novo paradigma energético

7 de Agosto, 2009

“Autoridade da Concorrência não regula o mercado dos combustíveis” — António Costa e Silva, in Negócios da Semana.

Uma entrevista de excepcional qualidade e oportunidade, dada a José Gomes Ferreira (SIC) pelo professor universitário e presidente da Partex Oil and Gas, António Costa e Silva. A não perder. — CS.

Uma casa dos anos 30, sustentável?

7 de Agosto, 2009

Um dos maiores desafios à implementação de programas de eficiência energética à escala das cidades, sobretudo tendo em conta a complexidade e diversidade construtivas das grandes cidades e cidades com centenas de anos, é modelar as próprias estratégias de eficiência. Que grau de intrusão —em matéria de alterações e requalificação— pode ser considerado aceitável? Que tipologias de intervenção? Que custos? Que parcerias e plataformas colaborativas poderão ser construídas para proceder a operações em larga escala? Como justificar e financiar os investimentos necessários sem provar previamente a qualidade das soluções? Recriar em ambiente de laboratório, casas e bairros, pode ser o caminho certo. — CS

Leaky 1930s test house gets 2016-style makeover
Posted by Greenbang on August 6th, 2009

Why would the University of Nottingham build a house meeting 1930s specifications in 2008? So it can use it as a guinea pig for a zero-carbon renovation experiment, the results of which will be relevant to millions of householders across the UK.

The house is about to undergo the first of three planned energy-efficiency upgrades ultimately aimed at helping it meet the Government’s 2016 zero-CO2 targets for all new housing. Over the next two weeks, the university will improve the house with cavity wall insulation, loft insulation, draft-proofing, double-glazing and other upgrades.

The university actually had to seek special planning permission when it built the house to 1930s standards. The building features open fires, single-glazed windows, inefficient water heating and no insulation. The 1930s semi is an icon of its age; three million were built and they remain a major part of the UK’s current housing stock.

The three-year research project to transform the structure to a zero-carbon one is being led by experts from the School of the Built Environment together with the energy firm E.ON.

The E.ON 2016 House is part of the Creative Energy Homes project, which has seen a total of six new homes built on University Park. Green Close showcases innovative state-of-the-art energy efficient housing of the future. The project is testing of different aspects of modern methods of construction, including layout and form, cladding materials, roof structures, foundations, glazing materials, thermal performance, building services systems, sustainable and renewable energy technologies, lighting systems, acoustics and water supply. The project aims to stimulate sustainable design ideas and promote new ways of providing affordable, environmentally sustainable housing that are innovative in their design. — in Greenbang.

Ler ainda:

1930s home goes green

Dr Mark Gillott, who is leading the research, said: “The house provides us with a unique test facility to measure the exact cost benefit, energy efficiency and carbon reduction figures achieved through the various upgrade measures we are implementing over the next two weeks — valuable information when deciding on which of the many energy efficiency measures are the most cost effective.” — in The University of Nottingham, Communications.

Estaleiros do Mondego e Orecon a surfar energia!

7 de Agosto, 2009

A Cargo News é uma leitura indispensável e isenta para saber como vai o sector de transportes em Portugal. Mas não só!

Encomenda improvável ganha pelos Estaleiros do Mondego

A empresa britânica Orecon assinou um acordo com a Estaleiros Navais do Mondego para a construção dos seus primeiros três aparelhos de produção de energia a partir das ondas. A notícia é avançada pelo “Greenbang.com”.
Nos termos deste contrato, a Estaleiros Navais do Mondego e a Orecon vão implementar a tecnologia de aproveitamento de energia de ondas, com a instalação de um conversor de energia das ondas (um sistema MRC) com uma potência de 1,5 megawatts, para o mercado português.  A construção da primeira unidade está prevista para ter início em Fevereiro de 2010, para estar pronta para instalação na Primavera de 2011.
“Portugal dispõe de excelentes recursos ao nível das ondas e a forma comprida e estreita do país significa que a ligação e distribuição em rede é muito mais simples de conseguir do que noutro lugar qualquer”, refere Ken Street, director do departamento de desenvolvimento do negócio da Orecon A empresa adiantou ainda que pretende fixar e fazer crescer esta indústria em Portugal, o que criará e assegurará empregos locais, sublinha o “Greenbang.com”. A tecnologia MRC, patenteada pela Orecon, usa o princípio da coluna de água oscilante. Esta estrutura é parcialmente submersa, oca, com abertura para o mar abaixo da superfície da água, de forma a que o ar contido no seu interior seja comprimido pela coluna de água. Este ar é conduzido através de uma turbina de ar para produzir energia. — in Cargo News n_589

Mais um campo de oportunidades no grande cluster do mar que urge pôr de pé num país com mais de 900 Km de costa continental e uma Zona Económica Exclusiva (alargada), i.e. 1.727.408 Km2!

Referência Wikipedia: Energia das ondas.

Do iPod ao Pod_home

6 de Agosto, 2009
Um projecto optimista para a Bienal de Veneza 2009

Um projecto optimista para a Bienal de Veneza 2009

August 6, 2009
MercuryHouseOne: Sleek Solar-Powered Mobile Lounge
by Bridgette Meinhold

There are mobile offices, mobile hedges, mobile homes and mobile phones, and just when you thought you couldn’t get more mobile, now there are super sleek mobile lounges! Designed by Italy-based Architecture and Vision, the MercuryHouseOne is a portable pod-like lounge that will debut at the Venice Biennale this September. Powered by solar panels and decked out with the latest lighting, video, and sound technologies, the curvaceous capsule is meant to provide a unique experience whether placed in nature in the heart of a bustling city. — in Inhabitat.

Embora o grande desafio passe prioritariamente pelo desenvolvimento de novos hábitos de consumo sustentável, pela eficiência energética e pela recomposição das cidades (retrofitting), a criatividade pura é sempre um tónico imprescindível, sobretudo diante dos grandes desafios. — CS.

Fotovoltaico de Alto Rendimento

5 de Agosto, 2009

A eficiência da energia fotovoltaica é um desafio ainda por vencer.

A Terra roda sobre si mesma, e por conseguinte, à noite, os paineis solares não recebem a energia solar de que necessitam. Por outro lado, sobretudo nas cidades e tecidos urbanos existentes, a busca de uma óptima exposição solar —i.e. aquela que garante rendimentos de eficiência energética da ordem dos 30%— é uma tarefa por vezes espinhosa e nada pacífica em termos sociais, culturais e até legais, mesmo em países com grande exposição solar, tais como Portugal, Espanha, Marrocos, Brasil, Angola, Moçambique, etc.

Daqui decorre a necessidade absoluta de aumentar a performance tecnológica dos actuais painéis solares fotovoltaicos, sem aumentar os custos por metro quadrado — antes pelo contrário: conseguindo mesmo que desçam! Esta não é uma tarefa fácil.

No entanto, do Imperial College de Londres chegam notícias animadoras sobre o potencial a curto prazo dos chamados concentradores solares. Foi nesta prestigiada instituição académica e científica que Keith Barnham e a sua equipa de investigadores desenvolveram uma tecnologia conhecida por Quantum Well Solar Cells. Entretanto, uma spin-out desta investigação deu lugar ao aparecimento da empresa Quanta Sol, apostada numa arquitectura muito sofisticada de concentração solar.

Nos Estados Unidos, por sua vez, Allen Barnett, da University of Delaware, tem vindo a trabalhar em tecnologias afins ao mesmo paradigma —conhecido por Very High Efficiency Solar Cell (VHESC)—, com o apoio do Strategic Technology Office, um departamento do conhecido Defense Advanced Research Projects Agency (DARPA).

Resumindo e concluindo, estas duas linhas de investigação e desenvolvimento prometem-nos uma subida dramática da eficiência da energia solar fotovoltaica já a partir de 2012. Uma promessa que não poderia chegar em melhor altura! — CS.

Citações:

QuantaSol unveils 28.3% efficient single-junction solar cell World Record
30 Jun 2009 by Sue Sparkes

QuantaSol unveils 28.3% efficient single-junction solar cell World record made public at UK’s Royal Society Summer Science Exhibition

Kingston-upon-Thames UK, June 30th 2009:

QuantaSol Ltd, a new independent designer and manufacturer of strain-balanced quantum-well solar cells, has developed what it believes to be the most efficient single junction solar cell ever manufactured. Developed in just two years, QuantaSol’s single-junction device has been independently tested by Fraunhofer ISE as achieving 28.3% efficiency at greater than 500 suns.

QuantaSol was established in June 2007 as a spin-out of Imperial College London to commercialise the University’s solar cell IP and offer devices to concentrator Photovoltaic (PV) systems developers. Imperial will be featuring a QuantaSol device as part of its presence at the Royal Society Summer Exhibition in London this week. — in QuantaSol.

Very High Efficiency Solar Cell

Program Manager: Dr. Brian Pierce

The objective of the Very High Efficiency Solar Cell program is to design, build and demonstrate engineering prototype solar cell modules that have high efficiency and are manufacturable. To achieve this objective, the VHESC program will develop technologies to reduce the costs of the solar cells and optical components.

The VHESC program final deliverables are to design, build and demonstrate at least 5 m2 of engineering prototype modules that are manufacturable and have an east-west field of view (FOV) ≥ ±60°, a north-south FOV ≥ ±25° , a system power efficiency (SPE) ≥ 40%, and a module manufacturing cost per m2 ≤ $1500. The SPE includes all factors that impact the system (module) power efficiency such as the power conversion efficiency, as well as the individual efficiencies of the photovoltaic (PV) cells. — Defense Advanced Research Projects Agency (DARPA)/ o Strategic Technology Office.