$25 million to a joint solar research effort by Stanford and UC-Berkeley

The U.S. Department of Energy’s SunShot Initiative recently awarded $25 million to a joint research effort by Stanford and UC-Berkeley. The team, called the Bay Area Photovoltaics Consortium (BAPVC), will work to address technical barriers to the solar power industry and reduce the cost of solar installations.
BAPVC will fund research and development that aims to produce cost-effective solar modules in high volume. It will look closely at new materials, device structures and production methods.
BAPVC co-director Yi Cui, an associate professor of materials science and engineering, was optimistic about these efforts.
“The future of solar is clearly in cheaper, better performing photovoltaics,” Cui said to the Stanford News Service. “The SunShot funding and the exciting collaborative approach between the universities and national labs guided by industrial perspectives will advance all the components of solar modules that will bring down the dollar-per-watt cost dramatically.”

Source: www.stanforddaily.com

Astenik Solar Announces Exclusive Partnership with Largest Solar Parts Manufacturer in China

Astenik Solar is pleased to announce an exciting partnership with Hangzhou First PV Material Co., the largest solar parts manufacturer in China, and a recognized global leader in providing superior quality PV materials for the solar industry.
The partnership recognizes Astenik Solar’s commitment to providing its clients with innovative solar products that have been developed after rigorous R&D and have achieved certification compliance.
“Our company is honoured to have been chosen as Hangzhou First PV Material Co.’s exclusive Canadian distributor,” said Marcus Lou, President of Astenik Solar. “This relationship will ensure that our customers have immediate access to the highest quality solar PV materials at affordable prices.”
Hangzhou First PV Material Co. was founded in 1994, and today, the company continues its rapid growth with three plants in China and a fourth under construction. Hangzhou First currently dominates 40% of the global solar EVA Film market with sales revenue of 6.6 GW in 2010. Over 600 panel manufacturers worldwide rely on Hangzhou for their solar product requirements.
“Entering the Canadian market is a natural extension of our global growth strategy,” said Mr. Lin JianHua, president of Hangzhou First PV Material Co. “Choosing the right distributor who is as committed to quality and service as our company is of critical importance. Astenik Solar is an excellent choice to be our valued partner, and we look forward to working together to provide the Canadian solar market with superior PV materials.”
Hangzhou First PV Material Co. received its UL, ISO 9001, ISO 14001 and QHSAS 18001 certifications which recognize the company’s commitment to excellence.
For its EVA film production capacity alone, Hangzhou is forecasting a doubling of its capacity over the next two years with 100 automated produced lines and 2000 workers by 2013.
Source: www.renewableenergy.com

Gujarat, India – ready for solar

The state policy of Gujarat in India, with a population of 50 million, is one of the drivers in Indian solar. Gujarat has the fastest growing economy in the country. Another driver is the Jawaharlal Nehru National Solar Mission with an initial feed-in tariff structure, which is already under fire from opponents. That plan, in three phases, looks for one gigawatt to be commissioned by 2013, half of which will be CSP (see diagram below). The state of Rajasthan proposes 550 megawatts in a reverse bidding process.
Julian Hawkins,Senior VP of Sales and Marketing at Abound Solar, who had just returned from a long trip to India, sees a number of factors in India’s favor: There’s a lot of sun and a market for power in the country. In Abound’s case, India’s hot weather makes thin film’s temperature coefficient a better fit than crystalline silicon. Gujarat is a dusty place, according to Hawkins, and the diffused light in that environment is also better suited for their thin-film modules. Hawkins sees Gujarat as a “very business focused state,” that is “making sure that the grid is ready for solar.”
Gujarat has a target of installing one gigawatt by the end of 2012 and three gigawatts by 2016 under a fixed tariff structure.
Source: www.greentechmedia.com

SolarCity sees U.S. panel prices tumbling in 2011

Solar panel prices in the United States are likely to drop by 20 cents per watt this year, according to the head of SolarCity, one of the nation’s largest photovoltaic solar service companies.
That drop would put the price of the panels that convert sunlight into electricity at about $1.40 per watt on average, or about 12.5 percent below prices quoted at the beginning of 2011.
Chief Executive Officer Lyndon Rive said the decline will help privately held SolarCity, which buys the panels from manufacturers and installs them for homes and businesses, to reach its cost-cutting target of 5 to 8 percent this year.
Prices for solar panels have dropped by about 75 percent in the past decade, and make up less than half the total cost of installing a rooftop system.
Most major solar manufacturers are increasing their output capacity of solar panels this year in a bid to grow their market share, even as key markets in Europe trim spending on the subsidies that are crucial to the fast-growing industry.
That could lead to a glut of solar panels on the market, squeezing margins at companies such as Trina Solar, First Solar Inc and SolarWorld AG.
However, market experts say those price declines are necessary to help the renewable power source compete with other sources of energy such as natural gas and coal, as well as reduce its dependence on government supports.

Source:  www.reuters.com

Japan’s Kyocera to build second solar panel plant in Čzech Republic

Kadan, March 31 (CTK) – Japanese company Kyocera has launched the construction of its second solar panel plant in the industrial zone in Kadan in the Usti nad Labem region, northern Bohemia, Stepanka Filipova of the government agency CzechInvest told CTK Thursday.
Kyocera is going to invest Kc700m in the new plant.
At present it employs around 600 people in the region. In the autumn it is going to hire another 400 employees.
Usti nad Labem is a region with the highest employment in the country. In February it registered 60,612 jobless people.
According to the Kyocera management, the Kadan enterprise is its base for the European market.
The new plant is to have a capacity of 360 MW. Kyocera’s total solar panel production in both Kadan plants should reach 560 MW annually.
The Kadan company supplies solar panels to the entire Europe. Besides the Czech Republic, Kyocera has plants in Japan, China, Mexico and the USA.

Source: http://praguemonitor.com/2011/04/01/japans-kyocera-build-another-solar-panel-plant-%C4%8Dr

Sam Wilkinson from IMS Research, about the future of PV market

Sam Wilkinson is one of the analysts in the PV Research Group at IMS Research. IMS Research is a leading provider of market intelligence to the global electronics industry and has been providing research and statistics on the industry for over 20 years.

What are your expectations for the global PV market in 2011 to 2012 (in terms of new GWs)?
IMS Research estimates that global installations will increase by around 20% in 2011, to between 20-22 GW; however, this is very dependent on how the market reacts to the changes in France and Italy. It’s possible we see a big pull-forward in demand again, but also possible that demand stalls and prices come down rapidly. Inventive reductions during, and at the end of 2011 mean that installations are likely to be roughly flat in 2012.
What do you expect to be the leading PV markets in the coming years?
We forecast that the largest PV markets (in terms of installations) in the next four to five years will be USA, China and Germany. Generally we see the global market diversifying and becoming less depending on just one or two markets – which of course will help stabilise demand.
What are your forecasts for the German and Italian PV market? And what other European PV markets will play a dominant role till 2015?
Following what has been an incredible two years for the German market, with installations estimated to have reached around 7.5 GW in 2010, we are seeing the incentive reductions start to take effect, and predict that installations will begin to decline in 2011, and again in 2012. That said, we don’t see Germany disappearing off the map or crashing altogether and believe that it will continue to install significant amounts of PV over the coming years.
It is currently very difficult to make a solid forecast for installations in Italy, as new information regarding its feed-in tariff is being released all the time. Based on the shipment information that we have collected (from inverter and module suppliers), we believe that genuine completed installations in 2010 were between 3-3.5 GW. We predict that there will be a surge in installations until the end of May when the current feed-in tariffs will finish. Currently, the rates that will be offered after this date are not available and there is still a chance that annual installations will be capped. Until this information is confirmed, it is very difficult to make a forecast. Although, it is certain that the new incentives policy will be designed to reduce the installations.
The Chinese PV industry is growing tremendously. Not only are the existing giants expanding their capacity, new entrants with huge ambitions are still entering the market. How does this match with the global market growth?
Chinese suppliers are carrying out extremely aggressive expansion plans. Chinese module suppliers added capacity very quickly throughout 2010 and capacity in China at the end of the year was over 80% higher than it was at the end of 2009. This growth was roughly in line with total industry demand. However, 2011 looks a little different; aggressive capacity expansions are continuing and Chinese suppliers are forecast to add a similar amount in 2011, but in contrast to 2010, installations are not predicted to grow at the same rate.
It is also significant that a number of other large Asian electronics suppliers are entering the market. Companies like LG, Samsung and Taiwan Semiconductor are able and willing to spend large amounts of capital and plan to quickly add capacity over the next few years.
What will the solar industry look like in five years’ time? Isn’t the solar industry likely to follow the wind-energy industry in the near future, with more than 90% of the market shared among only ten major manufacturers?
With incentive levels in the largest markets being quickly reduced over the last year or so, and further reductions likely, there will certainly be increased pressure on PV module prices. The leading, and surviving, companies will therefore be those that are able to reduce their costs in order to offer attractive prices whilst still maintaining a healthy margin. It is likely than only a small number of the hundreds of suppliers active in the market today will be able to achieve this.
Where in the supply chain (silicon to module) do you see the highest potential for further cost reductions?
As I previously mentioned, cost reduction is key to companies in a market that is ultimately aiming to reduce prices to the point where it no longer relies on subsidies and incentives, and can compete with conventional energy sources.
On the crystalline side, a clear strategy of some of the larger suppliers is the move to vertical integration. It is not difficult to see that the cost structure of a fully integrated module supplier (manufacturing polysilicon, wafers, cells and modules in house) has the potential to be significantly lower than a non-integrated one. A non-integrated module supplier’s cost structure could include the margin of a cell supplier, a wafer supplier and a polysilicon supplier, as well as the extra transportation costs etc. involved with the purchase of each item.
What module price development do you expect this and next year? Will the ASP for c-Si modules hit €1/Wp in 2012?

Following some increases in price during the second half of 2010, due to the high demand and short supply of modules, IMS Research predicts that prices will begin to fall again throughout 2011 and 2012. We predict that some crystalline modules will reach the €1/W milestone during 2012. Some thin film modules will reach this price this year though.
Europe seems to focus more on residential PV applications with their FiT support mechanisms. In the USA on the other hand, utility scale projects seem to drive the market. What is your view on the market segments that will drive the demand in the coming years?
IMS Research predicts that utility-scale PV systems will represent an increasing proportion of installations over the coming years, for a number of reasons:
Firstly, some of the largest markets in a few years time will be ones that favour large utility-scale projects, such as China and USA.
Secondly, the high volume nature of large utility-scale plants once again leads to lower prices and costs, on a per watt or per kWh basis at least.
In your opinion, where will the solar industry and markets be in 2015?
We predict that the largest end markets (geographically) will be USA, Germany and China in 2015. However, as I mentioned earlier we see full vertical integration becoming more and more common in the market, and we are likely to see a number of cell, module and wafer suppliers becoming their own ‘end customer’ and increasingly being involved in developing systems themselves.

Source: http://www.solarplaza.com/article/ims-research-usa-and-china-likely-to-become-the-w

Scientific breakthrough that will increase the conversion efficiency of solar photons into electricity

Researchers from the U.S. Department of Energy’s National Renewable Energy Laboratory (NREL) and the University of Colorado, Boulder (UCB), have reported the first designed molecular system that produces two triplet states from an excited singlet state of a molecule, with essentially perfect efficiency. The breakthrough could lead to a 35 percent increase in light-harvesting yield in cells for photovoltaics and solar fuels. The experiments, using a process called singlet fission, demonstrated a 200 percent quantum yield for the creation of two triplets of the molecule 1,3-diphenylisobenzofuran (DPIBF) at low temperatures. In singlet fission, a light-absorbing molecular chromophore shares its energy with a nearby non-excited neighreackthroghboring molecule to yield a triplet excited state of each. If the two triplets behave independently, two electron-hole pairs can be generated for each photon absorbed in a solar cell. This process could subsequently increase by one third the conversion efficiency of solar photons into electricity or solar fuels.
The researchers identified DPIBF as a promising candidate while searching for molecular chromophores that have the required ratio of singlet and triplet energy states.
Earlier, NREL and Los Alamos National Laboaratory had demonstrated an analgous two-electrons-from-one photon bonus using semiconductor quantum dots in a process NREL termed Multiple Exciton Generation. The latest advance is the first to demonstrate the electron multiplication phenomenon via the singlet-fission process in molecules.
Until this most recent advance, singlet fission had been known as a somewhat obscure phenomenon occurring at low efficiency in a small number of molecular systems. In 2004, NREL and UCB revisited singlet fission as a potential way to maximize solar photon conversion efficiency. In 2006, NREL’s Arthur J. Nozik and Mark C. Hanna calculated the gains in thermodynamic efficiencies that were possible with solar cells based on singlet fission. These activities led to a much more extensive search for the best candidate molecules in a collaboration between NREL and the research group at the UCB led by Josef Mic

Source: http://energyportal.eu/latest-solar-energy-news/9640-scientists-generate-two-energetic-electronic-states-from-one-photon.html

Tibet’s largest solar power plant to become operational in May

The largest solar power plant in Southwest China’s Tibet Autonomous Region will become operational in May to help ease the plateau region’s power shortages.
The 30-megawatt solar photovoltaic generation project in Xigaze Prefecture, about 3 km northwest of Tibet’s second largest city Xigaze, is perched at 3,895 meters above sea level, the project’s steering committee said Thursday in a press release.

It said the project would cost 800 million yuan (122 million U.S. dollars), funded solely by Linuo Power Group, a leading provider of solar photovoltaic power generation systems based in east China’s Shandong Province.

Construction of the first phase, costing 249 million yuan and covering an area of 30 hectares, began in May last year. It will generate up to 20.23 million kilowatt-hours of electricity annually, the document said.

German bored piling technology was used to dig through the thick layer of perennial frozen earth on the plateau, said project manager Zhang Daobin. It was the first time such technology had been employed in Tibet.

He said the first phase of the project alone could ease some power shortages in Xigaze Prefecture, by supplying electricity for more than 100,000 farming and herding families.

The clean energy project would help save 7,600 tonnes of coal annually and reduce carbon dioxide emissions by at least 13,800 tonnes, said Zhang.

Last year, a 10-megawatt solar photovoltaic generation project was built in Yangbajing, a town 90 km northwest of Tibet’s capital Lhasa, with a designed power generation capacity of 430 million kwh during its 25-year life span.

Source: http://english.peopledaily.com.cn/90001/90776/90882/7336743.html

First floating solar power plant in India

Tata Power is joining hands with the Sunengy Pty Ltd, an Australian solar power company to set up India’s first floating solar plant. It would be a low cost plant as the economic floating solar technology invented by Sunengy is going to be used. According to Mr.Banmali Agrawala, the executive director of Tata Power, India’s private electrical utility provider, Tata Power plans to set this floating solar unit on water that in the company’s quest for providing sustainable energy that is also eco-friendly. As this would be set on water surface land competition can be reduced considerably and it can be used for other purposes.
According to Mr.Phil Connor, executive director and chief technology officer of Sunengy, this plant would be built using their patented Liquid Solar Array (LSA) technology. LSA technology works by converting a large water source like a dam into a battery that can store solar energy. Such a setup would be a better method of water management and does not require acquisition of vast land.
Basically concentrated photovoltaic (CPV) technology will be used to make the solar cells floating on water. This floating reduces the cost of mounting solar cells on costly and strong supporting structures. This also makes the structure cyclone proof. Thus a lens and an array of solar cells would track sunlight throughout the day. In bad weather conditions the lens and cells would get submerged under water. However, this cooling would increase the life and efficiency of the cells and the lens.
The pilot plant in India would be commenced only in August 2011. Meanwhile, Sunengy would establish a larger LSA in the NSW Hunter Valley by mid 2012. Tests for the Indian units would be done at the CSIRO Energy Center in New Castle, New South Wales, Australia.
Thus by setting such a low cost solar plant, Tata Power can make a breakthrough by providing power at a reduced cost. The success of this plant can certainly be an eye-opener for using solar power extensively.
Source: www.ecofriend.com/entry/india-s-first-floating-solar-plant-by-tata-power-and-sunengy/

High Capacity Solar Charger and Battery

With powerful 20,000 mAh battery and 29 unique adapter tips, this solar charger will power and charge of almost all portable electronic devices and is extremely easy to use: Just set the battery voltage, find your adapter tip, and connect! For even more convenience, the adapters are also quick-switch and interchangeable, meaning you can start recharging your laptop immediately after you finish charging your MP3 player!

The most popular devices include laptops and mobile phones, but it also works with MP3 players, MP4 players, portable GPS navigators, GPS trackers, digital cameras, HD camcorders, portable DVD players, portable video game players, and an endless list of other cool tech gadgets and electronics.
With its powerful 20,000 mAh battery, this Solar Charger and Battery will provide many more hours of usage for your electronic devices and will seem like an endless power supply thanks to the constant charging by the solar panels. Also included is a handy button to show the amount of power left in the battery and when it’s low, just use the car charger, wall plug, or even leave it out in the sun to quickly recharge.
At a Glance…
20,000 mAh Battery and Solar Charger
Battery itself can be recharged quickly via AC adapter, car charger, or even by solar energy
29 unique adapter tips, works with most electronic devices
Power and charge electronic devices on-the-go
Includes a free carrying bag
Brought by chinavision
Source: http://www.chinavasion.com/product_info.php/pName/high-capacity-solar-charger-and-battery-20000mah/