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Energías renovables: Navantia puja por la eólica marina de Iberdrola

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Iberdrola adjudicará antes del verano el contrato para construir los ‘yakets’ o plataformas que soportarán las torres de los aerogeneradores. La inversión del parque eólico Wikinger asciende a 1.600 millones de euros y el complejo, ubicado en el Mar Báltico, contará con 80 aerogeneradores eólicos.

Iberdrola adjudicará antes del verano un megacontrato eólico para construir las plataformas eólicas.
La participación de Navantia en proyectos eólicos marinos es una de las prioridades que figura en la agenda de trabajo de la dirección de la empresa.
La diversificación de los astilleros públicos hacia la logística que requieren las energías renovables no es un asunto nuevo.
Navantia inició en 2010 el camino hacia la diversificación de su producción para ampliar nuevas líneas de negocio distintas a la construcción naval.
Los ingenieros llevan más de tres años trabajando en el diseño y construcción de las plataformas necesarias para soportar las torres eólicas, así como en las subestaciones de alimentación.
Sin embargo, la compañía pública no ha logrado, de momento, meter la cabeza en este sector, aunque la primera prueba de fuego seria la tendrá la próxima primavera. Iberdrola se hizo el pasado 2010 con el contrato para desarrollar uno de los mayores parques eólicos de Europa, el denominado parque eólico ‘Wikinger’, en la región alemana de Sassnitz-Mukran, en el Mar Báltico.
El parque eólico tendrá una capacidad de 400 megavatios (MW) y será capaz de generar energía eléctrica suficiente como para dar suministro anualmente a 350.000 hogares alemanes.
Iberdrola prevé dotar a este complejo offshore de una tecnología de última generación, con turbinas de 150 metros de altura que se ubicarán a 30 kilómetros de la Isla de Rügen y cubrirán un área de 32 kilómetros cuadrados en el Mar Báltico.


   



Concentrated Solar Power (CSP) SolarReserve Opens Office in Dubai

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SolarReserve opens an office in Dubai, meeting the needs of an expanding customer base as it develops  Concentrated Solar Thermal Power projects in MENA.

SolarReserve, a leading global developer of large-scale concentrating solar power projects and advanced solar thermal storage technology, today announced its expansion into the Middle East with the opening of a new office in Dubai, United Arab Emirates (UAE), which will serve as a hub for development activities in the region. 
Continuing its ongoing efforts to provide reliable, cost-effective, clean energy solutions worldwide, SolarReserve is pursuing both large-scale concentrating solar power (CSP) with thermal energy storage and photovoltaic (PV) projects that make optimal use of the region's abundant solar energy resources. As SolarReserve develops projects in the region, the company will continue to open country-specific offices to meet the needs of an expanding customer base, support project construction and operation, as well as to support local economies and employment.
For oil-exporting countries, the move to solar energy is directly correlated with rising fossil fuel prices. With the goal of maximizing the economic gain from their remaining oil reserves, many oil-rich nations are moving away from domestic oil and gas consumption so that they can export this finite resource for the highest return. Through heavy investment in solar development, these countries are moving boldly towards sustainable energy independence—ensuring that their growing populations will have an additional zero emission form of energy to meet their needs while creating a substantial industry and associated jobs and knowledge base within the region.
"In recent years, solar power generation has seen increasing growth in the MENA region. SolarReserve is committed to furthering support of its strong partnerships in MENA through the establishment of a regional hub that begins with an on-the-ground presence in Dubai," said SolarReserve's CEO Kevin Smith. "SolarReserve's world-leading solar thermal technology with integrated molten salt storage offers a cost-effective, reliable and most importantly, a baseload supply of electricity that is a game-changer for the region. Not only do we offer technology that can generate power on-demand, day and night, but our plants are dry-cooled which is critically important in a region with scarce water resources."
Philip Hale, Director of Development, will be based in the Dubai office and will lead SolarReserve's development activities for the MENA region. Hale joined SolarReserve in 2008, with over twenty years of experience in the energy, construction and real estate sectors. Before joining SolarReserve, Hale worked with Invenergy Wind, one of the largest privately owned renewable energy business in the world, focusing on international business development activities.
"We are continuing with our growth plan by establishing a new regional office in Dubai to service this rapidly expanding regional market," said Alistair Jessop, Senior Vice President of Development. "Phil's successful track record in developing renewable energy projects, coupled with his deep industry and market knowledge, will help SolarReserve bring reliable 24/7 renewable energy solutions to a high potential market in MENA that is worth trillions of dollars."
SolarReserve's industry-leading CSP technology features an integrated molten salt energy storage system that enables firm, reliable electricity to be generated on-demand and delivered to meet the client's power needs. This energy storage capability provides a stable electricity product similar to that of conventional fossil fuel-burning power facilities, but without the associated harmful emissions and price volatility. SolarReserve's CSP technology either alone or coupled with PV, can provide a cost effective and reliable alternative to fossil fuel generation with the reduction in emissions to near zero.
SolarReserve, LLC – headquartered in Santa Monica, California– is a leading developer of large-scale solar energy projects and technology with activities worldwide and more than $1.8 billion of projects in construction. SolarReserve has commercialized the world's leading solar thermal energy storage technology utilizing molten salt in a power tower configuration. SolarReserve's solar energy storage technology has the capability to deliver clean, reliable electricity "on demand" at any time, day and night. SolarReserve's experienced team of power project professionals has assembled an extensive 5,000 MW worldwide development portfolio of large-scale solar projects, including some featuring advanced solar thermal technology (CSP) and others utilizing photovoltaic (PV) technology.
SolarReserve's 110 MW Crescent Dunes Solar Energy Plant located near Tonopah, Nevada is the first utility-scale facility in the world to feature advanced molten salt power tower energy storage capabilities. The project is currently under construction with more than 700 workers on site and will be entering the commissioning phase. First generation of electricity is scheduled for mid-2014.
Additionally, SolarReserve currently has three photovoltaic projects, totaling 246 MW of generation capacity, in construction in South Africa. The Letsatsi and Lesedi power projects, each 75 MW in size, broke ground in February 2013 and are well underway in construction. The projects were selected as the "African Renewable Energy Deal of the Year" by Project Finance Magazine in 2012.  The 96 MW Jasper power project recently closed financing and commenced construction shortly thereafter. The three projects have a combined capital cost of more than $820 million and are all slated for completion in 2014.
In addition to its headquarters in the US, SolarReserve has offices in Spain, Chile, South Africa, Turkey, Australia, the UK and Dubai, with activities underway in the Middle East, Africa, Australia, China, and Latin America.





Renault Sold 8,500 Electric Vehicles in 2013

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According to the latest preliminary data on Renault EV sales, the French manufacturer ended the year of 2013 with 18,673 electric vehicles sold.  Of which ~97% were sold in Europe.


Renault’s first model, the Renault Fluence Z.E., noted a huge downfall from low levels in 2012 to rock bottom in 2013 and recently we learned that production had been halted. Less than 1,000 units were sold last year.

On the other hand, we have the very stable Renault Kangoo Z.E., with sales that almost reached 6,000. That’s +4% year over year.  (See Nissan, people love electric vans – so started building and shipping those e-NV200s already)

Then we have the Renault ZOE  that was unable to exceed 9,000 units. This is not a bad result as this EV is sold only in Europe and not in all countries there (significant was the absence of Zoe sales in Norway in 2013) — but we do expect more from ZOE in the coming years, as does the French auto maker.

And finally, we have the Renault Twizy. Again, a huge drop in sales from over 9,000 in 2012 to just over 3,000 in 2013. Maybe 2014 will be a better year for Twizy with the addition of a corporate-friendly “Cargo” edition.


Overall, Renault sold 11% more EVs in 2013 than it did in 2012, but the structure of those sales have changed significantly. In 2013, Renault sold about two times more full-size cars and three times less Twizys.  All thanks to ZOE, which compensates for downfalls of both the Twizy and Fluence Z.E. In this way, the value of Renault’s EV sales increased because Twizy is much cheaper than Zoe.

In Europe, over 18,000 EVs gives Renault first place among automakers, but the French company must watch out as Nissan, Tesla, BMW and even VW will grow in terms of EV sales in the coming years.




China’s photovoltaic solar power industry rebounds

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China’s solar panel industry is showing signs of booming again after a prolonged downturn – raising fears of another bust when the splurge of public money that is driving a spike in demand dries up.
Lured by generous power tariffs and financing support to promote renewable energy, Chinese firms are racing to develop multi-billion dollar solar generating projects in the Gobi desert and barren hills of China’s vast north and northwest.

The sweeteners have not only lured traditional energy investors like China Power Investment Corp, but also a host of solar panel makers and even companies such as toll road operator Huabei Express and Jiangsu Kuangda Auto Textile Group.
Some solar panel manufacturers, encouraged by a recovery in sales in the last two quarters – largely on surging demand from China and Japan – are expanding production capacity, even though the overall sector remains mired in a severe glut.
But industry officials worry fast-growing generation capacity will increase fiscal pressures on China and Japan and force them to cut subsidies which will then hit demand, just as happened with previous big solar users Germany, Spain and Italy.
“The key is whether the Chinese government is determined enough to boost solar generation,” Sun Haiyan, senior executive at Trina Solar, said when asked if the current solar expansion in China was sustainable.
China already boasts solar manufacturing capacity of about 45 gigawatts (GW), enough to meet global demand this year.
Trina Solar, JinkoSolar, Yingli Green Energy and Canadian Solar – among the world’s largest solar manufacturers that also include Japan’s Sharp Corp and U.S. SunPower Corp – are adding 3 GW of capacity, according to industry specialists and Chinese media.
Beijing is trying to consolidate the sector and force out the legion of small “zombie plants” currently sitting idle, but analysts say it faces stiff resistance from indebted regional and city governments that have backed local solar champions.
Michael Barker, analyst at global solar research firm Solarbuzz, said a risk now faced by the solar panel industry was manufacturers may react to improved demand “with somewhat irrational exuberance”.
“This could upset the stabilization process that has occurred during the past year, once again creating an overcapacity situation,” he wrote in a note this week.
Beijing’s decision in July to more than quadruple solar generating capacity to 35 GW by 2015, and Japan’s push to find alternatives to lost nuclear power following the 2011 Fukushima disaster, have revitalized the moribund Chinese panel industry.
China installed 8 GWs last year, turning it into the world’s largest solar market. That included 6 GW of solar farms – utility-scale, ground-mounted facilities – and 2 GWs of distributed solar energy such as rooftop installations. This year, it is talking about adding 14 GWs.
Installing 35 GW of solar capacity would cost around $50 billion, plus subsidies granted to solar power producers under long-term purchase agreements.
But it’s uncertain how long the current strong Chinese and Japanese demand, expected to account for 40-45 percent of global installations forecast for this year, will last.
With 100 million people still living in poverty, Beijing is unlikely to keep doling out generous solar subsidies indefinitely. Previous investment in solar plants in China has been hurt by delays in subsidy payments.
Japan has already lowered solar power tariff once in 2013.
Globally, the solar industry has made significant gains in driving down costs over the last few years, but it has yet to be weaned off big subsidies. Critics say the world should hold back from large-scale solar expansion until costs come down further and conversion efficiency of solar panels improves.
So far solar power only accounts for a small proportion of total installed power capacity in China, the world’s largest energy user, which is predominantly fired by coal.
But whilst the potential would seem to be large, a rapid build-up of solar and wind farms in western China has already created a problem.
State Grid Corp of China has been struggling to transmit power from there to population hubs in the south and east due to a lack of a comprehensive high-voltage and smart grid to harness the intermittent renewable power.
Lin Boqiang, director of the China Centre of Energy Economics at Xiamen University and an adviser to China’s National Energy Administration, said he has long-term faith in China’s solar power development but reckons grid access is a “tremendous challenge”.
Yet generous power tariffs and sweet loans granted by China for solar development have triggered what some analysts call “solar rush” for mostly solar farms in remote western China, where sunshine is abundant.
Beijing is buying electricity from solar farm investors at up to 1.0 yuan/kilowatt hour for up to 20 years, attractive terms that offer a relatively predictable annual return of more than 10 percent.
Separately, U.S. trade officials on Thursday opened investigations into imports of certain solar power products from China and Taiwan, a move that could have a major impact on the nation’s fast-growing solar market.
In the last few weeks, Chinese solar panel makers have made a slew of announcements to develop solar farms. They expect it to become a key part of their business as it would form a stable source of demand for their products.
Trina said on December 30 that it had signed a deal to develop a mega 1-GW solar farm project in the western province of Xinjiang. It also announced a plan to build a panel factory there for the project.
Shunfeng Photovoltaic, which is buying the main unit of bankrupt former top solar panel maker Suntech Power Holdings, this month vowed to invest 80 billion yuan ($13 billion) to develop 10-GW projects – nearly 30 percent of Germany’s solar installed capacity – over the next three years.
“We want to develop 3 GWs a year so we need more panel capacity,” said Shunfeng chairman Zhang Yi.



 

Solar power in the world: Photovoltaic (PV) and Concentrated Solar Power (CSP)

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Many industrialized nations have installed significant solar power capacity into their grids to supplement or provide an alternative to other sources. Long distance transmission allows remote renewable energy resources to displace fossil fuel consumption. 

Solar power plants use one of two technologies:
  • Arrays of photovoltaic (PV) modules, mounted on buildings or ground mounted 'solar parks'
  • Solar thermal energy plants, using concentrated solar energy to make steam. The steam is converted by a turbine to electricity.
Germany is the world's top photovoltaics (PV) installer, with a solar PV capacity as of December 2012 of more than 32.3 gigawatts (GW). The German new solar PV installations increased by about 7.6 GW in 2012, and solar PV provided 18 TWh (billion kilowatt-hours) of electricity in 2011, about 3% of total electricity. Some market analysts expect this could reach 25 percent by 2050. Germany has a goal of producing 35% of electricity from renewable sources by 2020 and 100% by 2050.
As of April 2013, the largest individual photovoltaic (PV) power plants in the world are Agua Caliente Solar Project, (Arizona, over 250 MW connected - to increase to 397 MW), California Valley Solar Ranch (CVSR) a 250 megawatt (MW) solar photovoltaicpower plant, by SunPower in the Carrizo Plain, northeast of California Valley,[7]Golmud Solar Park (China, 200 MW), Welspun Energy Neemuch Project (India, 150 MW), Mesquite Solar project (Arizona, 150 MW), Neuhardenberg Solar Park (Germany, 145 MW), Templin Solar Park (Germany, 128 MW), Toul-Rosières Solar Park (France, 115 MW), and Perovo Solar Park (Ukraine, 100 MW).
Solar power in the People's Republic of China is one of the biggest industries in mainland China. Chinese solar panel production reportedly quadrupled between 2009 and 2011 to surpass the entire global demand. As a result, the EU accused China of dumping its solar panels in Europe at below-cost prices, involving20 billion U.S. dollars of trade between the two powers.
Solar thermal power stations include the 354 megawatt (MW) Solar Energy Generating Systems power installation in the USA, Solnova Solar Power Station (Spain, 150 MW) and Andasol solar power station (Spain, 150 MW). The 370 MW Ivanpah Solar Power Facility, located in California's Mojave Desert, is the world’s largest solar thermal power plant project currently under construction. The Solana Generating Station is a 280 MW solar power plant which is under construction about 70 miles (110 km) southwest of Phoenix, Arizona. There are plans to build many other large solar thermal plants.
The development of solar power by country depends on national economic incentives more than insolation

Africa

On average, many African countries receive up to 325 days of sunlight per year. This gives solar power the potential to bring energy to virtually any location in Africa without the need for expensive large scale grid level infrastructural developments.
The distribution of solar resources across Africa is fairly uniform, with more than 80 percent of the African landscape receiving almost 2000 kW·h per square meter per year. A recent study indicates that a solar generating facility covering just 0.3% of the area comprising North Africa could supply all of the energy required by the European Union.

Asia

China

Solar power in the People's Republic of China is one of the biggest industries in mainland China. In 2007 China produced 1700 MW of solar panels, nearly half of the world production of 3800 MW, although 99% was exported.
Chinese solar panel production reportedly quadrupled between 2009 and 2011 to surpass the entire global demand. As a result, the EU accused China of dumping its solar panels in Europe at below-cost prices, involving20 billion U.S. dollars of trade between the two powers.
As well, solar water heating is extensively implemented.
As of 2013, China generates about 20 GW of power, with recent announcements that target an additional 14GW of power by the end of 2014.
Large PV power plants in China include the 200MW Golmud Solar Park.

India

India is densely populated and has high solar insolation, an ideal combination for using solar power in India. In the solar energy sector, some large projects have been proposed, and a 35,000 km2 area of the Thar Desert has been set aside for solar power projects, sufficient to generate 700 GW to 2,100 GW.
In July 2009, India unveiled a US$19 billion plan to produce 20 GW of solar power by 2020.
Under the plan, the use of solar-powered equipment and applications would be made compulsory in all government buildings, as well as hospitals and hotels.
On 18 November 2009, it was reported that India was ready to launch its National Solar Mission under the National Action Plan on Climate Change, with plans to generate 1,000 MW of power by 2013.
According to a 2011 report by GTM Research and BRIDGE TO INDIA, India is facing a perfect storm of factors that will drive solar photovoltaic (PV) adoption at a "furious pace over the next five years and beyond". The falling prices of PV panels, mostly from China but also from the U.S., has coincided with the growing cost of grid power in India. Government support and ample solar resources have also helped to increase solar adoption, but perhaps the biggest factor has been need. India, "as a growing economy with a surging middle class, is now facing a severe electricity deficit that often runs between 10 and 13 percent of daily need".
The Charanka Solar Park, at 214 MW the largest in the world, was commissioned on April 19, 2012, along with a total of 605 MW in Gujarat, representing 2/3 of India's installed photovoltaics. 
Large solar parks have also been announced in the state of Rajasthan. The 40 MW Dhirubhai Ambani Solar Park was commissioned on March 31, 2012.

Israel

Solar power in Japan has been expanding since the late 1990s. The country is a leading manufacturer of solar panels and is in the top 5 ranking for countries with the most solar PV installed, with 4,914 MW installed at the end of 2011, making it third in the world in total solar power (behind Germany and Italy), with most of it grid connected. The insolation is good at about 4.3 to 4.8 kWh/(m²·day).

Pakistan

Pakistan is setting up a solar power park, funded by the Chinese company TBEA, in the Cholistan desert near Yazman, about 30 kilometers from the eastern city of Bahawalpur. The solar project, which is to be set up on 5,000 acres, would produce 1,000 MW when completed. The first phase would be the development of eight projects of 50 Megawatts each.

Saudi Arabia

The Saudi agency in charge of developing the nations renewable energy sector, Ka-care, announced in May 2012 that the nation would install 41 gigawatts of solar capacity by 2032. It is projected to be composed of 25 gigawatts of solar thermal, and 16 gigawatts of photovoltaics. At the time of this announcement, Saudi Arabia had only 0.003 gigawatts of installed solar energy capacity.

South Korea

The Sinan solar power plant is a 24 MW photovoltaic power station in Sinan, Jeollanam-do, South Korea. As of 2009, it is the largest photovoltaic installation in Asia. The project was developed by the German company Conergy and it cost US$150 million. It was built by the Dongyang Engineering & Construction Corporation.

Europe

Belgium

In October 2009, the city of Antwerp announced that they want to install 2,500 m² of solar panels on roofs of public buildings, that will be worth 265,000 kW·h per annum.
In December 2009, Katoen Natie announced that they will install 800,000 m² of solar panels in various places, including Antwerp. It is expected that the installed solar power in the Flemish Region will be increased by 25%, when finished. That will be the largest installation in Europe. The total cost will be 166 million euros.

Germany

Germany is one of the world's top photovoltaics (PV) installers, with a solar PV capacity as of 2011 of almost 25 gigawatts (GW). The German solar PV industry installed about 7.5 GW in 2011, and solar PV provided 18 TW·h (billion kilowatt-hours) of electricity in 2011, about 3% of total electricity. Some market analysts expect this could reach 25 percent by 2050.

Greece

By September 2013, the total installed photovoltaic capacity in Greece had reached 2,523.5 MWp from which the 987.2 MWp were installed in the period between January-September 2013 despite the unprecedented financial crisis. 
Greece ranks 5th worldwide with regard to per capita installed PV capacity. It is expected that PV produced energy will cover up to 7% of the country's electricity demand in 2014.
A large solar PV plant is planned for the island of Crete. Research continues into ways to make the actual solar collecting cells less expensive and more efficient. Smaller solar PV farms exist throughout the country.

Italy

The Montalto di Castro Photovoltaic Power Station is a photovoltaic power station at Montalto di Castro in Viterbo province. The project was built in several phases. The first phase with a total capacity of 24 MW was connected in late 2009. The second phase (8 MW) was commissioned in 2010, and the third and fourth phases, totaling 44 MW, were completed in December 2010.
As of the end of 2010, there are 155,977 solar PV plants, with a total capacity of 3,469.9 MW. The number of plants and the total capacity surged in 2009 and 2010 following high incentives from Conto Energia. The total power capacity installed tripled and plants installed doubled in 2010 compared to 2009, with an increase of plant's average dimensions.
Energy production from photovoltaics was 1,905.7 GWh in 2010. Annual growth rates were fast in recent years: 251% in 2009 and 182% in 2010. More than a fifth of the total production in 2010 came from the southern region of Apulia.
In December 2012, solar PV in Italy is approaching the time to 17 GW of installed capacity and provides employment to 100,000 people especially in design and installation.

Portugal

A large photovoltaic power project, the Serpa solar power plant, has been completed in Portugal, in one of the Europe's sunniest areas. The 11 megawatt plant covers 150 acres (0.61 km2) and comprises 52,000 PV panels. The panels are raised 2 metres off the ground and the area will remain productive grazing land. The project will provide enough energy for 8,000 homes and will save an estimated 30,000 tonnes of carbon dioxide emissions per year.
The Moura photovoltaic power station is located in the municipality of Moura, in the interior region of Alentejo, Portugal.Its construction involves two stages, with the first one being constructed in 13 months and completed in 2008, and the other will be completed by 2010, at a total cost of €250 million for the project.

Russia

Current production of 5 MW is very modest, however there are plans for an expansion in capacity by 70 MW in 2012-13 in a $210 million joint project by Rosnano and Renova.

Spain

Spain is one of the most advanced countries in the development of solar energy, since it is one of the countries of Europe with more hours of sunshine. The Spanish government committed to achieving a target of 12 percent of primary energy from renewable energy by 2010 with an installed solar generating capacity of 3000 megawatts (MW). Spain is the fourth largest manufacturer in the world of solar power technology and exports 80 percent of this output to Germany.
Spain added a record 2.6 GW of solar power in 2008, increasing capacity to 3.5 GW. Total solar power in Spain was 4 GW by the end of 2010 and solar energy produced 6.9 terawatt-hours (TW·h), covering 2.7% of the electricity demand in 2010.
Through a ministerial ruling in March 2004, the Spanish government removed economic barriers to the connection of renewable energy technologies to the electricity grid. The Royal Decree 436/2004 equalized conditions for large-scale solar thermal and photovoltaic plants and guaranteed feed-in tariffs. In the wake of the 2008 financial crisis, the Spanish government drastically cut its subsidies for solar power and capped future increases in capacity at 500 MW per year, with effects upon the industry worldwide.

Turkey

In 2013 May, CSun factory established and has a capacity of 300 MWatts. Some industrial establishments have been continuing on.

United Kingdom

In the United Kingdom, the second tallest building in Manchester, the CIS Tower, was clad in photovoltaic panels at a cost of £5.5 million and started feeding electricity to the national grid on November 2005.
The lack of net metering delayed the development of the market until the government in the UK agreed in April 2010 to pay for all grid-connected generated electricity at an initial rate of up to 41.3p (US$0.67) per kW·h, whether used locally or exported. The rates proved more attractive than necessary, and in August 2011, were drastically reduced for installations over 50 kW, a policy change criticized as marking "the end of the UK’s solar industry as we know it".
This decision was overturned in the courts, with indexation, allowing 39.6p/kWh FIT for systems of up to 4 kW installed through the end of March 2, 2012, and 21p/kWh beginning March 3, 2012.
For larger systems, the FIT of 32.2p/kWh from April 1, 2010 through the end of July, 2011, was limited to systems up to 5 MW, with the result that no systems over 5 MW were constructed. After July, 2011, the FIT for systems over 250 kW dropped to 8.5p, (8.9p after March 31, 2011), with no limitation on system size after March 31, 2012.
Installations jumped from an installed base of 27 MW at the end of 2009 to 77 MW at the end of 2010 and to 1000 MW by February 22, 2012. 22 GW are expected by the end of the decade.Installations dropped 87% since the FIT was reduced.

North America

Canada

Sarnia Photovoltaic Power Plant near Sarnia, Ontario, was in September 2010 the world's largestphotovoltaic plant with an installed capacity of 80 MWp until surpassed by plants in China and India. The plant covers 950 acres (380 ha) and contains about 966,000 square metres (96.6 ha), which is about 1.3 million thin film panels. The expected annual energy yield is about 120,000 MW·h, which if produced in a coal-fired plant would require emission of 39,000 tonnes of CO2 per year.
Canada has many regions that are sparsely populated and difficult to access, but also does not have optimal access to sunlight given the high latitudes of much of the country. Photovoltaic cells are increasingly used as standalone units, mostly as off-grid distributed electricity generation to power remote homes, telecommunications equipment, oil and pipeline monitoring stations and navigational devices. The Canadian PV market has grown quickly and Canadian companies make solar modules, controls, specialized water pumps, high efficiency refrigerators and solar lighting systems. 
Ontario has subsidized solar power energy to promote its growth.
One of the most important uses for PV cells is in northern communities, many of which depend on high-cost diesel fuel to generate electricity. Since the 1970s, the federal government and industry has encouraged the development of solar technologies for these communities. Some of these efforts have focused on the use of hybrid systems that provide power 24 hours a day, using solar power when sunlight is available, in combination with another energy source.

United States

Solar power in the United States is an area of considerable activity and there are many utility-scale solar power plants. The largest solar power installation in the world is the Solar Energy Generating Systems facility in California, which has a total capacity of 354 megawatts (MW). Nevada Solar One is a solar thermal plant with a 64 MW generating capacity, located near Boulder City, Nevada. The Copper Mountain Solar Facility is a 48 MW photovoltaicsolar power facility in Boulder City, Nevada. The DeSoto Next Generation Solar Energy Center is a 25 MW photovoltaic solar power facility in DeSoto County, Florida.
The Blythe Solar Power Project is a 500 MW photovoltaic power station under construction in Riverside County, California. The Ivanpah Solar Power Facility is a 392 MW solar thermal power facility which is under construction in south-eastern California. The Solana Generating Station is a 280 MW solar power plant which is under construction about 70 miles (110 km) southwest of Phoenix, Arizona.
The Desert Sunlight Solar Farm is a 550 MW solar power plant under construction in Riverside County, California, that will use thin-film solar photovoltaic modules made by First Solar. The Topaz Solar Farm is a 550 MW photovoltaic power plant, being built in San Luis Obispo County, California. The Blythe Solar Power Project is a 500 MW photovoltaic power station under construction in Riverside County, California. The Ivanpah Solar Power Facility is a 392 MW solar thermal power facility which is under construction in south-eastern California. The Solana Generating Station is a 280 MW solar power plant which is under construction about 70 miles (110 km) southwest of Phoenix, Arizona. The Agua Caliente Solar Project is a 290 megawatt photovoltaic solar generating facility being built in Yuma County, Arizona. At 250 MW (AC) as of December 2012 it is the largest photovoltaic power station in the world. The California Valley Solar Ranch (CVSR) is a 250 megawatt (MW) solar photovoltaicpower plant, which is being built by SunPower in the Carrizo Plain, northeast of California Valley.
There are plans to build many other large solar plants in the United States. Governor Jerry Brown has signed legislation requiring California's utilities to get 33 percent of their electricity from renewable energy sources by the end of 2020. Many of the companies responsible for constructing these arrays are included on a list of US solar contractors by Solar Power World, which includes 50 such businesses from California.

Mexico

Mexico is already the greatest solar energy producer in Latin America and it is planning a solar trough based plant with 30 MW which will use a combined cycle gas turbine about 400 MW to provide electricity to the city of Agua Prieta, Sonora. To date, the World Bank has given US$50 million to finance this project.
Honduras in Central America is pushing through with solar water heating and solar panels, despite little or no help from the government. Although these systems represent a high cost to Central American households, companies like NRGEA are using private capital to finance the purchase of these systems to open up the market of renewables.

Oceania

Australia

The largest solar power station in Australia is the 10 MWp (megawatts, peak) Greenough River Solar Farm near Geraldton, Western Australia. Other significant solar arrays include the 220 kWp array on the Anangu Pitjantjatjara Lands in South Australia, the 200kWp array at Queen Victoria Market in Melbourne and the 160 kWp array at Kogarah Town Square in Sydney.
A 30 MWe (megawatts, electrical) solar thermal `coal saver' system is currently under construction at Liddell power station by Macquarie Generation and Solar Heat and Power. The system used `compact linear Fresnel reflector' technology developed in Australia. It will provide solar-powered steam to the 600 MW black coal power station's boiler feedwater heater. The project is funded by Macquarie Generation in order to meet its requirements under the Australian Mandatory Renewable Energy Target (MRET) scheme.
A 154 MWpsolar power station in Victoria will soon begin construction.

New Zealand

Solar power in New Zealand currently only generates 0.1 percent of New Zealand’s electricity, as more emphasis has been placed on hydroelectric, geothermal, and wind power in New Zealand's push for renewable energy. Solar power systems were installed in 42 schools in New Zealand in the Schoolgen program, a program developed by Genesis Energy to educate students in solar power. Each school has a 2 kW solar panel. Between February 2007 and December 29, 2012, 395.714 MWh has been produced.
In 2010, New Zealand's largest thin film solar array was the 20 kW array installed at Hubbard Foods. A 21.6 kW photovoltaic array was installed in Queenstown in 2009. In April 2012, New Zealand's largest solar power plant was the 68.4 kW array installed to meet 70% of the electricity needs of South Auckland Forging Engineering Ltd, which is expected to pay for itself in eight to nine years.
Total photovoltaic peak power capacity (MWp)
Country or RegionTotal
2010
Total
2011[75]
Total
2012[76][77][78]
Expected
2013
 World39,77869,684102,024140,000[79]
 European Union29,32851,36068,640
 Germany17,32024,87532,41136,600[80]
 Italy3,50212,76416,98719,000[79]
 China8933,0938,04320,000
 United States2,5194,3837,66511,933[81]
 Japan3,6174,9146,70415,700[82]
 Spain3,8924,2145,166
 France1,0252,8313,843
 Belgium8032,0182,650
 Australia5041,2982,291
 Czech Republic1,9531,9602,072
 United Kingdom721,0141,8313,300[79]
 India1894611,8392,180[83]
 Greece2066311,536
 Bulgaria181331,066
 South Korea6627541,006
 Canada200563831
 Slovakia145488523
 Austria103176418
  Switzerland111216416
 Denmark7.117394
 Thailand28149359
 Ukraine3190326
 Netherlands97118321
 Israel66196250
 Portugal131144244
 Taiwan32102206
 Slovenia3690198
 South Africa404141
 Mexico304040
 Malaysia151536
 Brazil2732
 Luxembourg273030
 Sweden101919
 Cyprus6.21017
 Finland9.61111
 Norway9.29.2
 Turkey009
 Poland

7
 Hungary

4
Total concentrated solar power capacity (MWp)[88]
Country or RegionTotal
2005
Total
2006
Total
2007
Total
2008
Total
2009
Total
2010
Total
2011
 World3543554384948201,1931,707
 European Union0011623846381,108
 Spain0011613826321,102
 United States354355427432512517517
 Algeria00000025
 Morocco000002020
 Egypt00000020
 Iran000001717
 Italy000004.74.7
 Germany000001.51.5


http://en.wikipedia.org




Energías renovables, eólica, fotovoltaica y termosolar, pierden con metas europeas 2030 para el clima

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“Es muy débil”, dijo en una entrevista Jacopo Moccia, director de asuntos políticos de la Asociación Europea de Energía Eólica. “Fue un truco comunicacional más que un objetivo real. ¿Cómo determinamos que la UE cumplió su meta si no impone obligaciones a los estados miembros? Es difícil imaginar que la UE se llevará a sí misma ante la corte y se multará a sí misma”.

La Comisión Europea dijo que el bloque de 28 países deberá obtener 27% de su energía de energías renovables (eólica, fotovoltaica y termosolar,) para 2030, frente a 20% al final de esta década.
Los productores de energía eólica y solar dijeron que corren peligro de perder inversiones después de que la rama ejecutiva de la Unión Europea rechazó propuestas de establecer un objetivo obligatorio para la energía renovable en 2030.
La Comisión Europea dijo que el bloque de 28 países deberá obtener 27% de su energía de fuentes renovables para 2030, frente a 20% al final de esta década. A diferencia de la actual meta, la nueva no será dividida en objetivos nacionales.
La UE lucha para reducir los contaminantes considerados responsables del calentamiento global y al mismo tiempo mantener a raya los montos de las facturas de electricidad que a veces alcanzan el doble de los niveles de Estados Unidos. Compañías como Vestas Wind Systems A/S, Alstom SA, Gamesa Corp. Tecnológica SA y Acciona SA ejercieron presiones políticas para que se establecieran objetivos obligatorios en materia de fuentes renovables, en tanto el Reino Unido encabezó una campaña contra ellas a fin de darles más espacio a la captura de carbono y la energía nuclear.
La propuesta de la comisión inicia el debate sobre política energética para 2030 entre los países miembros. También pidió una reducción del dióxido de carbono de 40% para entonces, el doble de la meta actual de 20% para 2020. Los jefes de gobierno de la UE discutirán el programa en Bruselas en marzo.
El secretario general de las Naciones Unidas, Ban Ki-moon, instó a los líderes europeos a adoptar el plan de la comisión a tiempo para su cumbre sobre el clima en Nueva York en septiembre. El funcionario intenta obtener compromisos sobre emisiones que serían incluidos en un nuevo plan de la ONU sobre cambio climático en París a fines de 2015. “La UE ha establecido la norma que todos deben seguir”, dijo Ban en Davos, Suiza.
El primer ministro británico, David Cameron, dijo en una carta en diciembre al presidente de la comisión, José Manuel Barroso, que una meta en energía renovable costaría a los consumidores británicos 9.000 millones de libras (US$14.800 millones) al año para 2030. La propuesta de la comisión permitiría tecnologías como energía nuclear, captura y almacenamiento de carbono y eficiencia energética que se usarían para cumplir con la meta general de la UE para el carbono.
Sin embargo, la decisión es decepcionante para los desarrolladores de energía renovable, que se expandieron con rapidez en la última década, respaldados por el objetivo del bloque para la tecnología. La cuota de energía renovable usada en transporte, calefacción y generación eléctrica alcanzó 12,7% en 2011, desde 8,5% en 2005, según estadísticas incluidas en las propuestas.


 
 
 


Eólica y energías renovables: Proyecto eólico Valle Hermoso en Argentina

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La iniciativa del parque eólico es impulsada por el consorcio NRG Patagonia, un emprendimiento fundado con la intención de que se puedan producir aerogeneradores desde la Patagonia.

El gobernador Martín Buzzi rubricó esta tarde un convenio de cesión de tierras a la empresa Eólica Valle Hermoso SA para la instalación de un parque eólico.
El mandatario provincial destacó que “esta iniciativa nos permitirá incrementar nuestra capacidad de generar energía, tanto para acompañar el crecimiento de nuestra provincia como para aportar al sistema interconectado”, a la vez que resaltó que “los aerogeneradores que se van a instalar en este nuevo parque van a ser fabricados en la zona, creando fuentes de trabajo para los chubutenses”.
“Firmamos este convenio donde se facilita la tierra para la instalación del parque como un paso más en un proceso en el que siempre estuvimos presentes, involucrados muy activamente en el proyecto”, señaló Buzzi.
Respecto a la asociación del ámbito público y el privado, el gobernador manifestó que  “el Estado provincial está para acompañar al sector privado, para hacerle más fáciles las cosas a quienes quieren trabajar y lo hacen con seriedad”, dijo Buzzi, destacando la importancia del crecimiento tecnológico de las empresas regionales y la utilización de mano de obra local que conlleva. “Con el potencial que tenemos en materia de energía eólica en Chubut, es importante tener una industria local del sector”, agregó.
En este marco, cabe señalar que el convenio firmado por el gobernador Buzzi se  enmarca en la Ley 26190 que establece el Régimen de Fomento Nacional para el Uso de Fuentes Renovables de Energía Destinada a la Producción de Energía Eléctrica. En el detalle del acuerdo firmado se informó que el predio cedido se encuentra a 70 kilómetros al oeste de Comodoro Rivadavia y el parque ocupará una superficie de casi 900 mil metros cuadrados.  Estará compuesto por 8 aerogeneradores de 70 metros de altura con una capacidad de generación de 1,5 MW de potencia nominal, lo que permitirá producir unos 12MW de potencia que serán inyectados al Sistema Argentino de Interconexión.
HACIA UN DESARROLLO DE LA INDUSTRIA EÓLICA LOCAL
Por su parte el representante de Eólica Valle Hermoso SA, Alfredo Rodrigo, explicó que el convenio firmado “es la ratificación de un acuerdo que se había instrumentado hace un año para el uso de un sector del terreno en la zona de Valle Hermoso, donde se va a montar un parque eólico de ocho molinos”, e indicó que los aerogeneradores que instalará la empresa pertenecen también a una empresa local, NRG Patagonia.
Y recordó “los dos grupos patagónicos socios –Eólica Valle Hermoso y NRG- ya tenemos un molino eólico instalado en la zona de El Tordillo, y ahora vamos por este parque de ocho aerogeneradores”, y señaló que se prevé comenzar con la instalación de la primera etapa durante el primer cuatrimestre de este año, de manera de tener la totalidad del parque funcionando para el 2015.
Rodrigo remarcó que “esto forma parte de incorporar energías renovables a la matriz energética nacional”, al tiempo que destacó que también va a permitir incrementar la mano de obra ocupada en la región ya que “estos molinos tienen un 50% de partes construidas acá, y otro 50% son elementos que se importan”.
En tanto, desde el pasado mes de abril la empresa chubutense Eólica Valle Hermoso acordó con la Compañía Administradora del Mercado Mayorista Eléctrico Sociedad Anónima (CAMMESA) la venta de su producción al sistema interconectado nacional como mínimo por los próximos 15 años, con lo que el proyecto sumó una cuota de previsibilidad muy importante para el crecimiento de las inversiones y la posibilidad de generar innovación tecnológica y nuevas fuentes de trabajo en la provincia.


 
 

Iberdrola Ingeniería launches Marin-el R&D project along with a group of Basque companies

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In collaboration with a group of Basque companies, IBERDROLA INGENIERÍA has just launched the Marin-El R&D project with the goal of designing a new marine substation for offshore wind farms in order to expedite installation and significantly reduce costs.


The initiative has been allocated a €10 million budget and is supported by the Basque government. It also intends to offer an alternative to the existing substations, which are too bulky and heavy. This will in turn eliminate one of the main difficulties involved in the various offshore technologies used for generating electricity.

This type of offshore facilities have to meet increasingly demanding requirements, resulting not only from their expanding capacity but also from the need to manage reliable electricity production and minimize losses caused by the distance to the coast.

The proposal whose technical and financial feasibility is to be analysed in the Marin-el project is based on the creation of a self-installing substation. This would provide several advantages: in the construction stage (as it would be developed 100% on dry land) and also in the stages of transport and - most importantly - installation.

In this regard, IBERDROLA INGENIERÍA and its partners have devised a pre-equipped system [see graph] to secure the substation to the sea bed without the help of special installation vessels, thus avoiding the costs associated to the process and various technical limitations.

Successful completion of the Marin-el project - which is due to continue until the end of 2015 - would bring about significant technological development in the offshore energy sector. The consortium headed by IBERDROLA's ingeniería subsidiary includes Ingeteam, Ormazábal and Arteche (companies which offer innovative solutions in substations and energy clusters).

The project also includes Construcciones Navales del Norte, an internationally renowned Basque shipyard that will define the required equipment and offshore operations. It will be supported in this work by the Basque Maritime Forum.

The initiative will also take the environmental impact of this new type of installation into account, via an assessment based on analysing its life cycle, to be carried out by Semantic Systems and Corporación Tecnológica Tecnalia.

This R&D project is an example of the IBERDROLA Group's commitment to offshore renewable energy generation technologies.  The Company is currently developing offshore wind farms in the United Kingdom, Germany and France, as well as other projects in the wave and tidal energy fields.






Sharp to Construct 52 MW Large Solar Power Generation Plant in Thailand

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Sharp Corporation has signed an agreement with SSP(2) of Thailand to construct a 52 MW-dc(3) large-scale solar power generation plant in that country. Construction will begin in January, with operations scheduled to start by the end of 2014.


The plant will be operated by power producer SSP, which earlier placed a construction order for the project with Sharp, ITE(4), and ITD(4) (the largest construction company in Thailand). Sharp will collaborate on the design and construction of the plant and will also supply the solar modules and balance of plant (BOP) for it. When the new plant comes online, the total amount of power generation capacity of Sharp solar power plants in Thailand will exceed 150 MW.

The power plant will employ thin-film solar modules that offer superior performance characteristics under high temperatures. Sharp will supply approximately 400,000 of these modules-along with the requisite BOP-on an expansive area of about 1.3 square kilometers. Maintenance and operational control will be provided by Sharp Solar Maintenance Asia Co., Ltd. (SSMA)(5), a Sharp subsidiary established in March 2011. Specially trained and qualified personnel will provide operational support by inspecting and servicing the entire plant.

Sharp will continue to develop a top-to-bottom business model that includes collaborating on the design and construction of solar power plants, supplying BOP, and providing maintenance and operational control services.

Note:

(1) An EPC (engineering, procurement, and construction) contractor carries out the design of a project, procures all the necessary equipment, and contructs the project.
(2) SSP: Serm Sang Palang Ngan Co., Ltd. A special-purpose company, whose parent organization is Tang Kim Heng Group. SSP plans, invests in, and operates power generation businesses.
(3) dc: direct current
(4) ITD (Italian-Thai Development Public Company Limited): The largest construction company in Thailand. ITD has extensive experience-in both Thailand and global markets-in the construction of public facilities such as international airports, hydraulic power plants, and commercial buildings.
ITE (ITALTHAI Engineering Co., Ltd.): ITE, an affilated company of ITD, provides a wide range of services, including supplying electricity and designing buildings and facilities.
(5) SSMA is a subsidiary of Sharp Corporation established on March 21, 2011, to provide repair and maintenance services for large-scale solar power plants in Asia.
Sharp Corporation (TSE: 6753) is a worldwide developer of innovative products and core technologies that play a key role in shaping the future of electronics. As a leader in liquid crystal displays (LCDs) and digital technologies, Sharp offers one of the broadest and most advanced lines of consumer electronics, information products and electronic components, while also creating new network businesses.



 

Approval granted for wind farm at Bosnia Herzegovina

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Government of Bosnia Herzegovina's Zapadna Hercegovina Canton has accepted the report of the Commission for Concessions of ZH Canton on the implemented procedures for granting concessions for the construction of: 1. wind farm at the site "Skradimovac" in the Municipality of Glamoc, and 2. solar parks for production electricity at the sites of Caic, Bila (Brda) and Golinjevo-Misi (Tusnica), in the Municipality of Livno Bosnia Herzegovina, and has authorized the relevant ministry to sign the concession contract with the companies WBL CITY PROJECT Ltd. Banja Luka and SOLBUS Ltd. Livno.Co-owner of the company ' WBL CITY PROJECT Ltd. Banja Luke is the Austrian firm AMSM-Bau GesmbH, while the SOLBUS Ltd. Livno is the part of the Chinese company of Hareon Solar Technology Co.


The value of the construction of a wind farm project is about 140 million EUR, and the construction of a solar park is about 500 million EUR.

Eólica y energías renovables: Isastur construirá un parque eólico con 38 aerogeneradores de Vestas en Jordania

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El parque eólico, que contará con 38 aerogeneradores del fabricante Vestas de 3,075 MW de potencia cada uno, se construirá en Al Tafila, una zona montañosa del país cercana a la frontera con Israel y a 180 kilómetros al sur de Amman.

Isastur se ha adjudicado, junto con una empresa local, el proyecto de ingeniería y construcción en Jordania de un parque eólico de 117 megavatios (MW) de potencia eólica instalada por un importe de 30 millones de dólares.
El plazo de ejecución del parque eólico, que suministrará energía eléctrica equivalente al consumo medio de 55.000 hogares, es de un año, por lo que la fecha prevista de finalización es febrero de 2015.
Además del importe del diseño y la construcción, el contrato prevé una ampliación de otros cinco millones de dólares (3,7 millones de euros) para labores de operación y mantenimiento durante diez años.
Isastur ha destacado que este contrato le permite posicionarse para futuros desarrollos en la zona de oriente medio y reforzar su estrategia de crecimiento e internacionalización. El grupo cuenta ya con proyectos de otros parques eólicos en Uruguay y Rumanía, además de fotovoltaicos en Chile y otros eléctricos de alta tensión en Argelia, Escocia, Uruguay, Chile y Marruecos, entre otros.


 
 

SOLAR-EREA.NET launches funding opportunity for Concentrated Solar Power (CSP) projects

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For Concentrated Solar Power (CSP), the pre-proposals should cover: Cost reduction and efficiency increase in components, Dispatchability through storage and hybridisation and New fluids for CSP plants.


The FP7 funded European network, SOLAR-ERA.NET , has released calls for innovative projects on a transnational basis.
The second set of the transnational SOLAR-ERA.NET Calls PV2 and CSP2 is launched. Preproposals must be submitted by 30 April 2014. The Electronic Submission System (ESS) will be available from end of February 2014 on. Further information on topics, timeline, contact points, etc. is available in the documents listed on this page.
The first set of the transnational SOLAR-ERA.NET Calls PV1 and CSP1 resulted in 60 preproposals and 21 full proposals. More information in sections "News & Events" and "Projects & Results" (once publishable summaries of projects funded will be available).
Seventeen countries have been invited to submit proposals for innovative projects for PV, CSP and STE. The total budget for the programme is 12 million Euros. Pre-proposals must be submitted not later than 30th of April 2014.
For Concentrated Solar Power (CSP), the pre-proposals should cover:
• Cost reduction and efficiency increase in components
• Dispatchability through storage and hybridisation
• New fluids for CSP plants






 
 
 
 

U.S. added 2.94 GW of utility-scale solar energy photovoltaic PV, Concentrated Solar Power (CSP) in 2013

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Solar energy projects put online in 2013 include Abengoa's 280 MW Solana Concentrated Solar Thermal Power plant, the largest CSP plant in the world.
The United States added 266 utility-scale solar photovoltaic (PV) and concentrating solar power (CSP) power plants totaling 2.94 GW in 2013, according to the Federal Energy Regulatory Commission (FERC).
This represents a 43% increase over the capacity added in 2012, and also larger projects. The average size of utility-scale PV and CSP projects put in service in 2013 was 11 MW, as opposed to 5.8 MW in 2012.

This does not count “behind the meter” residential and commercial PV systems. Many U.S. government agencies and grid operators either do not count these systems or do not report their findings, and as such these statistics are not directly comparable to European solar statistics.

NPD Solarbuzz (Santa Clara, California, U.S.) and GTM Research (Boston, Massachusetts, U.S.) have estimated the total size of the U.S. PV market at 4.2 and 4.3 GW respectively. Since FERC's numbers include the 280 MW Solana CSP project which was commissioned in 2013, this would translate to around 1.6 GW of behind-the-meter PV. GTM Research has not released final numbers for 2013.
Despite these relatively large numbers solar remains a marginal resource in nearly all parts of the United States. According to the U.S. Department of Energy, PV and CSP, including behind-the-meter systems, only met 0.44% of the nation's electricity demand in 2013. This is less than 10% of the portion of demand met in Spain and Germany (around 5% each) or Italy (7.0%).
Also, the capacity of utility-scale solar added was dwarfed by natural gas additions. Due to the current low prices and plentiful supply of natural gas from hydraulic fracturing (“fracking”), the United States has been adding natural gas units very rapidly, with 77 units totaling 7.27 GW added in 2013.

Following gas, the next-largest additions were coal plants, with two units at 1.54 GW, and wind, with 18 units at 1.13 GW. The nation's wind market has seen a crash following the 12.4 GW of capacity added in 2012. During 2012 wind was the largest source of new generation at over 40% of new capacity. 



 
 
 
 

 




Nissan y FedEx prueban el vehículo eléctrico e-NV200 en Brasil

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Nissan Motor Co. y FedEx Express, una subsidiaria de FedEx Corp., la mayor compañía de transporte rápido del mundo, comenzará a probar los vehículos eléctricos Nissan e-NV200 en condiciones reales en Brasil.
 
El programa piloto, que se llevará a cabo en la ciudad de Río de Janeiro, donde se encuentran las oficinas centrales de Nissan Brasil, forma parte del programa de evaluación y desarrollo global del vehículo, que se está llevando a cabo conjuntamente por las dos compañías. Esta es la primera vez que el modelo se prueba en el continente americano. Hasta el momento, los dos socios han puesto a prueba el e-NV200 en Japón, Reino Unido y Singapur. Posteriormente este programa de pruebas se llevará a cabo en Estados Unidos.El programa de evaluación une dos empresas fuertemente comprometidas con la reducción de los impactos ambientales de sus operaciones en todo el mundo. La elección de Brasil como un participante en el programa de evaluación e-NV200 es una prueba de la importancia del país para empresas cuyo objetivo es hacer crecer sus operaciones locales de manera sustentable.Nissan, por ejemplo, se está preparando para abrir una de sus plantas más sustentable en Resende, en Río de Janeiro. “La oportunidad de poner a prueba la e-NV200 en Brasil es un testimonio del hecho de que los vehículos 100% eléctricos también son viables en el mercado local. También estamos probando 25 unidades de Nissan LEAF a través de un proyecto piloto de taxi en las ciudades de Río de Janeiro y São Paulo, así como uso para patrullas en Río de Janeiro, donde fueron puestos a disposición del Departamento de Policía de la ciudad dos unidades”, comentó François Dossa, presidente de Nissan en Brasil.“Como líder mundial en el uso de vehículos eléctricos en la industria del transporte y la logística, FedEx se compromete a ofrecer alternativas innovadoras y diferentes en el mercado con el fin de encontrar las mejores soluciones para reducir las emisiones de CO2 y aumentar la eficiencia operativa de la empresa”, dijo Mike Murkowski, vicepresidente senior de Operaciones para FedEx Express de América del Sur.
En diciembre, la compañía puso seis vehículos eléctricos en servicio para sus operaciones en Río de Janeiro y Sao Paulo. La introducción del vehículo eléctrico en la operación brasileña es parte de EarthSmart, plataforma de sostenibilidad global de FedEx diseñados para guiar el compromiso ambiental de la empresa en las comunidades donde opera.
Nissan ha proporcionado a FedEx Express un e-NV200 para las pruebas de campo, para ser utilizado como vehículo de abastecimiento durante aproximadamente un mes. Después de este período, las dos compañías evaluarán el potencial del modelo como un vehículo de entrega de carga. Los resultados aportarán una contribución significativa al desarrollo de la versión de producción en masa de la e- NV200, que iniciará este año en la planta de Nissan en Barcelona, ​​España.
Segundo vehículo 100% eléctrico mundial de Nissan
La e-NV200 será el segundo vehículo eléctrico a ser comercializado a nivel mundial por parte de Nissan, después de que el LEAF que recientemente alcanzó ventas globales por 100 mil unidades. El monovolumen compacto fortalece el liderazgo de Nissan en la movilidad de cero emisiones y representa un gran avance en el segmento de vehículos comerciales.

El modelo 100% eléctrico tiene las mismas características de versatilidad, funcionalidad y habitabilidad del modelo base, la van utilitaria NV200. También ofrece un desempeño único gracias a su sistema de propulsión basado en el Nissan LEAF. El motor eléctrico es alimentado por una batería de iones de litio de 48 módulos que ofrece el equivalente a 107 caballos de fuerza (80 kW) y 29.5 Kgfm (280 Nm) de torque cuando se pone en marcha.
Con tracción delantera, la e-NV200 ofrece una aceleración excepcionalmente suave, las características que son comunes a los vehículos eléctricos solamente. No emite dióxido de carbono en absoluto en comparación con los 140 g de CO2/km aproximados que emitirían los motores a gasolina. Además, el 80% de la capacidad total de la batería se puede recargar rápidamente en 30 minutos.
El modelo ofrece una amplia gama de usos para los diferentes negocios, con un sistema de telemática avanzada y una fuente de alimentación dentro de la zona de carga que permite la conexión de dispositivos externos. El diseño inteligente de los módulos de batería asegura un área de carga más grande, que es una gran preocupación en cuanto a los vehículos comerciales ligeros. Con una sola fila de asientos, que tiene una longitud de dos metros y una capacidad de carga para transportar hasta 4,200 lts (4.2 m3). Lo mejor de todo es además ofrece el mejor costo de propiedad en el segmento, lo que es altamente estimado por las empresas, además de hacerlo mucho más atractivo
Presentado como un auto concepto en el Auto Show de vehículos comerciales de Hannover en 2012, el modelo de producción de la e-NV200 contará con tres versiones dirigidas tanto a empresas como a familias: van de carga con una o dos filas de asientos y vehículo de pasajeros con dos filas de asientos.



 

Yingli and Trina Grab 15% of Solar Photovoltaic (PV) Industry in Q4’13

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Leading Chinese solar photovoltaic (PV) manufacturers Yingli Green Energy and Trina Solar have emerged as the clear market leaders within the solar PV industry, shipping more than 5.8 gigawatts (GW) of solar PV modules in 2013. During the last six quarters, Yingli and Trina increased total market share from 12% in Q2’12 to nearly 15% at the end of Q4’13, according to findings in the latest NPD Solarbuzz Module Tracker Quarterly report.

“Yingli and Trina embarked on an aggressive shipment strategy over the past eighteen months,” according to Ray Lian, senior analyst at NPD Solarbuzz. “With the global PV manufacturing segment focused on reducing costs and controlling expenses, there was a clear window of opportunity for market share gains. These two companies have capitalized on this opening with meticulous precision, and they are now poised to become the first multi-gigawatt module suppliers driving the next phase of strong end-market growth.”
The top 20 leading solar PV suppliers shipped a new record level of modules in Q4’13 of 7.6 GW, marking the first time that the top 20 suppliers have broken through the 7 GW barrier. The Q4’13 shipment volume from the top 20 companies grew by 9% M/M and 44% Y/Y. The top 20 PV manufacturers now supply 68% of the global solar PV industry.
During Q4’13, 11 of the top 20 module suppliers set new quarterly shipment records. In particular, Yingli and Trina both exceeded 800 megawatts (MW) of shipments in Q4’13, with Yingli setting yet another record of more than 900 MW. Over the next few quarters, these two market leaders will compete to become the first PV module supplier to reach the unprecedented 1 GW mark for quarterly shipment volume.
Yingli and Trina have now increased their combined trailing-twelve-month (ttm) shipment volume, from 2.4 GW at the end of Q2’12, to 5.8 GW at the end of Q4’13. The 62% increase in shipments in just 18 months is a key factor behind the companies’ combined market share gains.
The average selling price (ASP) of the top 20 grouping was once again flat ($0.72 per watt), with module pricing remaining stable for three consecutive quarters. ASPs have only declined by 3% since Q4’12, compared to the staggering 35% annual decline during the previous 12-month period.
Of the top 20 module suppliers, 11 now have ASPs between $0.6 per watt to $0.7 per watt. ASPs are higher for high-performance module suppliers SunPower and Panasonic, and for other premium-brand suppliers, like SolarWorld, Sharp Solar, and Kyocera.
The Chinese suppliers in the top 20 decreased their silicon and non-silicon module costs to $0.55 per watt during Q4’13. Jinko Solar was the first major supplier to break below the $0.5 per watt threshold. More than half of the top 20 module suppliers now have blended costs below $0.6 per watt.
With costs lower than ASPs, the average gross margin for top 20 module suppliers has increased from approximately 10% in Q2’13 to 15% in Q4’13, up significantly from a low of 1% in Q3’12.
“With a stable pricing climate and with gross margins for the industry leaders set to once again exceed 20%, increased module shipments are now resulting in strong revenue and profit gains,” added Lian. “The positive environment for leading solar PV module suppliers will provide a solid foundation in 2014, which will lead to plans for new capacity expansions and further efficiency improvements.”


 
 
 


Record offshore wind energy figures conceal slow-down in new projects

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418 offshore wind turbines came online in 2013 in Europe, making a record 1,567 Megawatts of new wind power capacity.522 wind turbines were erected during 2013, an average of 4.3 MW per day.This is one-third more than the capacity installed in 2012. This makes a new total of 6,562 MW of offshore wind power - enough to provide 0.7% of the EU's electricity. 


However a closer look at what happened reveals a slow-down during the year: two-thirds of the new capacity came online in the first six months. With 11 projects now under construction, down from 14 this time last year, market and regulatory stability is critical to bringing forward the 22,000 MW of consented projects across Europe.
"The unclear political support for offshore wind energy - especially in key offshore wind markets like the UK and Germany - has led to delays to planned projects and fewer new projects being launched. This means installations are likely to plateau until 2015, followed by a decline as from 2016", said Justin Wilkes, Deputy CEO at the European Wind Energy Association (EWEA).
"An ambitious decision on a 2030 renewable energy target by the Heads of State in March would be the right signal to send to the offshore wind sector that Europe will develop its massive offshore wind potential for green growth, jobs, industrialisation, technological leadership and CO2 reductions", Wilkes added.
In 2013 Siemens was the leading turbine supplier (69%), DONG Energy the leading developer (48%), and Bladt the leading substructure supplier (37%), as they were in 2012.

 http://www.ewea.org/fileadmin/files/library/publications/statistics/European_offshore_statistics_2013.pdf

 
 

 
 

 

 

Supreme Group Wins Site Services Contract for Mongolia’s First Wind Farm

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Supreme Group, a global leader in the provision of end to end supply chain solutions in challenging environments around the world, has been awarded a twelve-month contract to provide catering, cleaning, laundry and security services for Mongolia’s first wind farm project. The contract was awarded by Clean Energy, a joint venture among Newcom Group, General Electric (GE), European Bank for Reconstruction and Development (EBRD) and Netherlands Development Bank (FMO).

Located 70 kilometers south of Mongolia’s capital Ulaanbaatar, the Salkhit Wind Farm is a landmark project established by the private sector with support from the Mongolian Government and international development organizations. The project aims to improve living conditions in Mongolia through the production of electricity by a local, clean and renewable energy resource. The 50 megawatt facility uses 31 GE turbines and will annually offset around 180,000 tons of CO² emissions; reduce coal usage by 122,000 tons; and save 1.6 million tons of fresh water. The power generated by the project will service customers connected to the central grid in Mongolia; a country in which energy demand has been increasing by eight per cent annually over the past few years.
“The wind farm is a flagship development for Mongolia’s renewable energy sector; and we are delighted to have the opportunity to work with Clean Energy on this project, especially as sustainability is one of our core values,” said Stephen Orenstein, Principal, Supreme Group. “We are committed to local economic development and in particular to national sourcing and creating local employment opportunities, so we have hired a team of local employees and Mongolian suppliers to work with us as part of our Mongolia First Program. Since commencing operations in Mongolia in 2012, we have focused on providing world-class support services to help further develop the Mongolian mining and energy industry,” Orenstein added.
Supreme provides end to end supply chain, construction and site service solutions in Mongolia including the South Gobi region, with specialized skills in construction, food supply and site services. In addition to the Clean Energy project, Supreme also provides food supply and camp services to workers in a road construction camp in the South Gobi Desert, which is a contract awarded by one of Mongolia’s largest industrial holding companies.
Since 1957 Supreme has delivered logistics support in some of the world’s most remote and hostile locations. The company’s integrated capabilities include procurement, transportation, construction, storage, technology and full site services.
Founded in 1957, Supreme Group is a global leader in the provision of end-to-end supply chain solutions to defense, government, and commercial sector clients around the world. For more than fifty years, the company has provided critical, life-sustaining services that empower clients to accomplish missions in challenging and austere environments.
Supreme offers a unique breadth of capabilities – ranging from procurement, transportation and storage through to technology and full site services. Today, its legacy of proven and trusted performance in challenging environments spans more than fifty years; covering 30 nations across five continents.
Supreme has a long history of supporting international organizations and governments. Its current clients include the United Nations (UN), the North Atlantic Treaty Organization (NATO), and leading military forces including the U.S. Department of Defense (DoD) and the U.K. Ministry of Defence (MoD). Over the years, the company has also partnered with many commercial clients.
The Group’s excellent reputation is built on the key strengths of delivering where others cannot; implementing rapid response solutions; and creating fully integrated supply chain solutions.
As a socially responsible organization, Supreme Group strives to maintain the highest standards of ethics and integrity across its operations at all times. It is committed to respecting people and the environment; nurturing community development; implementing sustainable business practices; and giving back to the communities in which it operates.

 
 

 
 

Iberdrola connects first offshore wind turbines to grid at West of Duddon Sands wind farm

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Via its British subsidiary ScottishPower Renewables, IBERDROLA and Danish firm Dong have connected the first wind turbines at the  West Of Duddon Sands (WODS) offshore wind farm in the UK to the British national grid.


These are the first four offshore turbines to be connected to the grid by IBERDROLA and the first offshore turbines commissioned by a Spanish company to start producing electricity, which is yet another demonstration of the company's commitment to renewable energies. 
West Of Duddon Sands is located about 20 kilometres from Barrow-in-Furness, on the North-West coast of England. It has been under construction for two years now.  The company has installed 42 of the 108 wind turbines that make up this project and is currently in the process of commissioning and connecting all of these turbines.
Once commissioning is complete (which will require a total investment amounting to  £1.6 billion), the facility will have a capacity of 389 megawatts (MW) and produce enough electricity to meet the needs of some 300,000 British homes. 
So far, some 200 kilometres of cables have been installed under the sea and the 108 foundations have been finished.  The site covers a surface area of about 67 km2 and the turbines supplied by German firm Siemens have a unit capacity of 3.6 MW.
The energy produced by the wind turbines is collected in an offshore substation specially designed to withstand the harsh weather conditions in the area.  The voltage is raised in the substation and then two undersea cables export the electricity to the Heysham substation on land, which is the point of connection to the UK grid. 
The WODS wind farm has been designed with the latest advanced technology, which has allowed to bring down costs.  The new terminal at the port of Belfast that was built specifically for the purpose of installing offshore wind farms is used to store and pre-assemble all the parts and components.  Some 300 people work there, ranging from welders to engineers and crane operators.
This major offshore wind power complex is being built using state-of-the-art installation ships.  They are the most modern ships available on the market and were built expressly for the installation of offshore wind farms.
The ships are used on a joint basis: Pacific Orca (the largest installation ship in the world, measuring 161 metres long, 49 wide and 10.4 deep) is used to transport the foundations; and Sea Installer is used to take the wind turbines and blades out to the designated wind farm location.  
The IBERDROLA Group has pinpointed offshore wind power as one of the core areas for its future growth and aims to spearhead the development of this technology, while proceeding with the care that is required with this kind of investments.  The company has an Offshore Business Division (with offices in Glasgow, London, Berlin, Madrid and Paris) in charge of gradually commissioning its project portfolio, which already amounts to a capacity of some 8,000 MW in the UK, Germany and France.




Siemens to supply 79 wind turbines for Pattern wind power in Texas

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Siemens AG (SIE), Europe’s biggest engineering company, won a contract to supply 79 wind turbines for a 182-megawatt Pattern Energy Group Inc. wind power project in northern Texas.

Siemens will begin delivering the 2.3-megawatt wind turbines in March for the Panhandle 2 wind farm in Carson County and Pattern expects to complete it in November.
The blades will be built at Siemens’s factory in Fort Madison, Iowa, and the nacelles, the car-sized units that house the turbines’ machinery, at a Hutchinson, Kansas, plant. Terms weren’t disclosed.




Eólica y energías renovables: Irán fabrica aerogeneradores de 660 kW

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Irán ha llevado a cabo con éxito el proyecto de diseño y fabricación de un aerogenerador de 660 kw, exteriorizó el miércoles el secretario de la Organización iraní de Energías Renovables, Yusef Armudli.

Según el líder del grupo, es la primera vez que los expertos iraníes fabrican un generador eléctrico del tipo ‘asíncronos’, basándose totalmente en la ciencia nacional, y “el siguiente objetivo del proyecto es dominar la técnica necesaria para reparar los generadores”.
“Hemos alcanzado la tecnología de fabricar aerogeneradores lo que resultaría en ahorrar los recursos económicos y naturales, además de independizar el sector eléctrico de los países extranjeros”, agregó Armudli.
Actualmente, el aerogenerador de 660 kw es fabricado por pocas empresas en el mundo, entre ellas la danesa ‘Vestas Wind Systems’, la compañía más grande en el orbe.
A juicio de los datos ofrecidos por la Organización de Energías Renovables de Irán, el país persa ocupa el 1º lugar en Oriente Medio respecto a la producción de energías obtenidas por fuentes naturales, pues se producen en las plantas del país más de 300 megavatios de electricidad.

 
 
 
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