Posts Tagged ‘technology’

Peak Oil Not a Problem According to NY Times; Scientific American – Our Response on the Financial Aspects

Monday, September 28th, 2009

Recently, we have had two new articles aiming to put to rest people’s fears about peak oil. One is from the New York Times:

Oil Industry Sets a Brisk Pace of New Discoveries

It talks about the many discoveries this year, and how, if they continue at the pace they have in the first half, they will be the best since 2000.

The other is from the October Scientific American, called

Squeezing More Oil from the Ground.

It is behind a pay wall (you can get it for .95). There is also a draft version available on line. Its premise seems to be that there are a lot of promising areas that we have not yet explored. When you put this together with advances in drilling and the promises of secondary and tertiary recovery, there is a good chance that oil production will not peak for many years.

In this post, we will look a little more at these articles, and see why peak oil, and perhaps the financial issues associated with peak oil, are still an issue, regardless of what these articles may suggest.

New York Times Article

A few excerpts from Oil Industry Sets a Brisk Pace of New Discoveries

NY Times:

It is normal for companies to discover billions of barrels of new oil every year, but this year’s pace is unusually brisk. New oil discoveries have totaled about 10 billion barrels in the first half of the year, according to IHS Cambridge Energy Research Associates. If discoveries continue at that pace through year-end, they are likely to reach the highest level since 2000.

Two times 10 billion barrels of oil is 20 billion barrels of oil. Twenty billion barrels of oil divided by 365 is only 54.8 million barrels a day–not nearly enough, if we are currently using 72 million barrels of crude oil a day. If 10 billion barrels is an unusually large amount in the first half, the likelihood of having equal success in the second half by luck is not very good.

NY Times:

While recent years have featured speculation about a coming peak and subsequent decline in oil production, people in the industry say there is still plenty of oil in the ground, especially beneath the ocean floor, even if finding and extracting it is becoming harder. They say that prices and the pace of technological improvement remain the principal factors governing oil production capacity.

There are a lot of issues with difficult to extract oil beneath the ocean floor. While it is theoretically possible for the oil price to be high enough to extract this oil, there is a real issue with too high an oil price (resulting in wholesale oil costs of over 4% of GDP) causing a major recession. Currently, such an oil price is about per barrel. So it is not clear that prices can go enough higher, and stay enough higher, for extraction.

The more difficult to extract oil also has severe challenges in terms of the amount of up front investment needed, and the long time delay before it will actually come to market. For the new very deep ocean “finds’, it could be 10 years or more before we will actually get the oil extracted. By then, our oil needs, if economies continue to grow, will be much higher than today.

NY Times:

Since the early 1980s, discoveries have failed to keep up with the global rate of oil consumption, which last year reached 31 billion barrels of oil. Instead, companies have managed to expand production by finding new ways of getting more oil out of existing fields, or producing oil through unconventional sources, like Canada’s tar sands or heavy oil in Venezuela.

Companies haven’t managed to expand production. Crude oil production has been on a plateau since 2005. That is the problem.

Read Article: Peak Oil Not a Problem According to NY Times; Scientific American – Our Response on the Financial Aspects

Figure 1. Graph of world crude oil production, based on EIA data. *2009 data is average through june 30, 2009.

In Figure 1, note that oil production has not risen significantly since 2005. This happened, despite rising prices.


Figure 2. EIA graph of West Texas Intermediate oil prices. Graph of world crude oil production, based on EIA data. *2009 data is average through June 30, 2009.

In Figure 2, note that even when oil prices rose far above their historical average price of barrel in the 2003 to 2008 period, oil production in Figure 1 rose very little–virtually none after 2005. In fact, it was the lack of rise in production that was a major driver of higher prices.

When prices finally dropped, there is significant evidence that it was related to high oil prices indirectly causing problems with credit markets.


Figure 3. US Consumer Credit Outstanding based on Federal Reserve data.

In Figure 3, note that US consumer credit reached its peak in July 2008, precisely the same month oil prices reached their peak. Once credit started contracting, purchase of goods that required oil in their manufacture (such as cars) dropped. The drop in oil price reflected the inability of purchasers to continue buying products that used oil in their manufacture. If credit had continued to expand, it is possible oil prices would have continued to rise further, but still with virtually no increase in oil supply.

NY Times:

Reserve estimates typically rise over the life of a field, which can often be productive for decades, as companies find new ways of getting more oil out of the ground.

Maybe, maybe not. We don’t have very good knowledge of reserves around the world. In many places, particularly the Middle East, the reserves seem to be quite inflated. If reserve estimates are starting out from an inflated base, it is doubtful they will increase. They may still be overstated, even with huge improvements in technology.

One of the big issues is whether new technology can be implemented cheaply enough to keep the prices to a level that the consumer can afford. If new technology can only be implemented at 0 a barrel, and the economy starts crashing at or barrel, the new technology really may not be all that useful.

NY Times:

“The industry’s record has improved in recent years, thanks to high prices. According to Cambridge Energy Research Associates, oil companies have found more oil than they produced for the last two years through a combination of exploration and field expansions.

This comment is strange. Cambridge Energy Research Associates (CERA) is part of IHS, and IHS was quoted as saying:

In 2008, world oil reserves declined nearly 3%, primarily due to a 5.2 billion bbl decline in revisions that stemmed from reduced commodity prices.

World oil reserves (excluding oil sands) were 1,261 billion barrels at the end of 2007, according to British Petroleum. A 3% decline would amount to about 38 billion barrels–more than the 20 billion barrels hoped for this year in new discoveries.

Another question is how a 5.2 billion barrel decline (from reduced commodity prices, as stated by IHS) could cause most of this decrease, if we are talking about a + billion decrease. One wonders whether the IHS statement really was intended to apply to some subset of world oil reserves. Perhaps the CERA statement should also be interpreted to apply to some subset of world reserves. It is possible the CERA statement about reserve replacement may also apply to oil and gas reserves on a combined basis, since companies generally give their oil and gas reserves on a combined “barrel of oil equivalent” basis.

These quotes regarding reserves illustrate how difficult it is to interpret statements found in newspapers about reserves. The reporters often don’t understand quite what they are talking about, so the quote doesn’t quite get all of the specifics needed to understand what is being described. If someone wants reserve replacement to sound favorable, he or she can often find a way to word the statement so it sounds good, whether or not the details really add up to an increase.

Price is important in all of this. If the price of oil isn’t high enough, reserves may not be developed. But if the price of oil is too high, it may sink the economy, and the reserves still may not be developed.

Scientific American Article


Figure 4. October 2009 Scientific American graphic illustrating areas that have allegedly not been adequately explored.

This graphic alleges that much of the world’s oil deposits have not adequately been explored with modern technology. It seems to me that one doesn’t really need modern technology to get at large reservoirs in easy to reach locations. It is only when one is looking for either very small deposits, or deposits in locations that are difficult to extract from that modern technology really is needed. We aren’t likely to find any more Saudi Arabias, whether or not we have fancy new equipment.

The issue that arises with deposits that are in difficult to reach locations, like thousands of feet under the sea, and then under a salt dome as well, is that the oil found in those locations is almost always very expensive to extract. It is hard to believe that even with new technologies that will change–it is the location that makes oil extraction so difficult. New technology may make extraction a little easier, but it is still likely to be expensive.

Scientific American also has a graphic on tertiary recovery techniques. It says:

After primary and secondary recovery have run their course, more aggressive methods, some of them still experimental, can soften the remaining oil so it can flow toward the wells. Because these advanced methods are expensive, the battle to get more out only gets this fierce when resale prices are sufficiently high.

incendiary
Burning part of a reservoir (which requires injecting air underground) enhances the recovery rate in three ways. First, heat from the fire makes oil less viscous. Second, the combustion produces carbon dioxide, which pushes oil out. Third, the fire breaks the larger and heavier molecules of oil, making it more mobile.

Chemical
Substances called surfactants, injected into a reservoir, help oil detach from the rock and flow better. Layers of surfactant engulf oil into droplets, similar to the way ordinary soap washes oily materials off a surface. A variation consists of injecting chemicals that generate the soaplike materials from components present within the oil itself.

Biological
Experiments are testing the injection of bacteria (together with nutrients and, in some cases, oxygen) that grow in the interface between the oil and the rock, helping to release the oil. The bacteria are allowed to grow for several days before recovery resumes. In the future, genetically engineered microorganisms could partially digest the most viscous oil and thin it out.

Here again, the issue is price. Can these techniques be implemented cheaply enough that they can be used without raising the price of oil so high that the price is beyond what consumers can afford?

More on the Financial Issues Involved


Figure 5. Dave Murphy’s graphic from this post.

Dave Murphy showed a graphic earlier this year that illustrated the relationship between oil prices and recession. In this graphic, Dave uses retail prices to determine his percentage of GDP. The threshold for retail oil prices seems to be about 5.5% of GDP (equivalent to 4% wholesale). The dollar per barrel cut off for causing a recession seems to be in the to barrel range.

It will be hard to maintain an oil price at a level that sends the US (and the world) into recession. While we usually think of oil production as being limited by geology, it seems to me that the weak link is really finances. What tends to happen is that when the price of oil gets very high, people change their purchasing patterns. People continue to buy oil products, because they need transportation to work. People also continue to buy food, and it also is a heavy user of oil. What people cut back on is expenses that can be deferred–buying a new larger house, buying a new car, going to a restaurant, contributions to charities.

This cutback in expenditures causes recessionary impacts. As things get worse, some debt holders start defaulting on their debt. This might be restaurant owners who have less business, and because of this can’t pay their debt. It might be homeowners with long commutes, who cannot pay both their mortgage payments and the cost of gasoline for their long commutes. It might be governments who cannot collect enough taxes, because of dropping demand (and lower prices) for houses in their suburb. It might be a charity with lower contributions.

Eventually, the debt defaults result in a cut-back in credit like we saw in Figure 3, because of the adverse impact of the debt defaults on lenders. Once there is a cutback in credit, consumers are no longer able to purchase as many cars and other durable goods. These durable goods require oil in their manufacture. With fewer purchases of goods using oil in their manufacture, the demand for oil drops. Because of the drop in demand for oil, oil prices drop again, allowing the economy to recover a bit, as it is doing now.

But as the economy recovers, demand begins to grow again. With the rise in demand, oil prices are likely to rise again to a level where they have an adverse impact on the economy. The world economic system was damaged pretty badly with the last price spike. Another spike could have much more adverse results. Eventually, the world economy may become so damaged by oil price spikes that recovery of the world economy in the form we now know it may not be possible.

I don’t know how this will work out. There could be huge international defaults. The result might be each country more on its own, with much less international trade, because countries would no longer trust each other for credit. Globalization could start unwinding.

How soon such a scenario would might occur is not certain, but it seems to me that a scenario like this, rather than the amount of reserves in the ground, is likely to determine how much oil is ultimately produced. Some countries may be able to keep up production for a while, even with a world financial crisis, but eventually oil producing companies are likely to run into barriers–parts they need for equipment that they cannot obtain, or lack of trained people to perform needed services (because such services were formerly done by an international trade partner).

It would be nice if there were a guarantee that came with oil reserves as currently reported that we really will be able to extract the oil that they represent. It seems to me this will be the case:

(1) If the world economy stays together,

(2) If the price of oil stays in a zone that is neither too high to crush the economy, nor too low to discourage the expensive investment needed for getting the oil out, and

(3) If there are enough investment dollars available, for the sizable front end investment required to produce the oil.

Those are three pretty big “if”s. Without them, it seems like oil production will be very difficult.

The Algae Fuel Backlash: Here Come the Skeptics

Monday, September 28th, 2009

algaefuel2Judging from the flurry of venture-capital deals, big oil company investments, and attention from politicians on startups creating biofuels from algae, it might seem like the world has fallen in love with the technology to power vehicles with pond scum. But after all of the algae euphoria this summer, we’ve started seeing a few signs of an algae fuel backlash, with several prominent investors publicly questioning the economics of algae fuel.

At the AlwaysOn’s GoingGreen conference, outspoken cleantech investor Vinod Khosla said his firm has aggressively been looking at algae technologies, but hasn’t found one viable plan after looking at “maybe two dozen.” “The economics of algae don’t seem to work,” he said.
(You can watch the video here by clicking on “Renewables at Scale.”)

In contrast, Khosla has been investing millions into biofuels made from cellulosic biomass. His sentiments also seem to be a change from the rhetoric just last year, when Khosla said at the Algae Biomass Summit that algae could “be a solution” and play a significant role in replacing oil.

Khosla isn’t the only one warning against too much optimism where algae fuel is concerned. At the EmTech conference this week, Jim Matheson, a general partner at Flagship Ventures, said he doesn’t think the costs calculate out either. “We just don’t believe in the economics,” he said, and added that he isn’t sure that “algae is going to come down the cost curve,” according to Technology Review.

At the same event, Technology Review also reported that David Eyton, head of research and technology at BP, which has invested in algae startups Synthetic Genomics and Martek Biosciences, questioned the viability of different types of algae technology, and more specifically the kind that Exxon Mobil recently invested 0 million in. “We don’t think that [technology] will ever reach the kind of cost or supply that we think people are prepared to pay,” he said.

Is the algae-fuel backlash snowballing into a full-on trend? Well, algae has always had its skeptics. As far back as three years ago, companies like Imperium Renewables were stating that producing significant amounts of algae for biodiesel was further away than cellulosic ethanol. “It’s not about whether algae can produce oil, but about whether it can meet a standard quantity needed for fuel,” then-CEO Martin Tobias said at ThinkEquity’s Greentech Summit in San Francisco back then. “It’s going to take longer than anyone wants to say at an investor’s conference.”

Nobody so far has been able to produce algae cost competitively in large quantities, and – in spite of all the promising ideas — it’s still unclear whether that will happen. Matt Horton, CEO of Propel and a principal at @Ventures, said his view of algae hasn’t changed in the last few years. “It’s one of the most promising opportunities in the liquid fuels arena, but the timelines for true commercialization are still years down the road,” he said. It’s tough for a company like Propel to work with algae companies at this point because it’s difficult to predict – with any certainty – when algae-based fuels might realistically be delivered.

When a technology like algae fuel gets as much attention as it has this summer — with politicians visiting algae fuel startups on a weekly basis — it becomes an easy target for the skeptics. What the industry needs right now is less hype and more proof that the pond scum can really come down in cost to reach mass commercialization.

Image courtesy of NREL.



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Tweeting Plants

Monday, September 28th, 2009

By EJ Hurst.

Finally, a truly useful tweet! I use Twitter as part of my marketing responsibilities but I must say, I have been slow to warm to this use of technology. A recent discovery has re-inspired me.

Sadly, the plants in our office often have to resort to dropping leaves onto our keyboards in order to attract attention to the increasingly desert-like conditions in their pots. But help is at hand, and from Twitter, no less.

Today I met Pothos on Twitter. Pothos is a plant in New York City. Thanks to Botanicalls, the very clever technology developed by NYU’s Interactive Telecommunications Program, Pothos plant can send messages via Twitter requesting to be watered, or advising of over watering. I guess it would be beneficial for a human in the same vicinity of the plant to follow it, but once that is accomplished, the plant can communicate its need for a cold one as needed.

In this humorous presentation on the Ignite Show, Kati London explains some even more broad-reaching applications for this technology.

Video Credit: O’Reilly Ignite Show

This article originally appeared on New Society Publishers’ blog, Word Out! The Blog to Build a New Society.

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(Posted by WorldChanging Team in Stuff at 11:20 AM)

Read Article: Tweeting Plants

Abengoa Set To Transfer CSP Technology to Maharishi Solar

Wednesday, September 23rd, 2009

Maharishi Solar Technology has reached an agreement with the Industrial (IST) Division of Abengoa Solar Inc. (ASI). As part of this association, Abengoa Solar will support Maharishi Solar Technology through technology transfers, training of their staff for design installation and operation of various industrial ventures.

Abengoa Set To Transfer CSP Technology to Maharishi Solar

Wednesday, September 23rd, 2009

Maharishi Solar Technology has reached an agreement with the Industrial (IST) Division of Abengoa Solar Inc. (ASI). As part of this association, Abengoa Solar will support Maharishi Solar Technology through technology transfers, training of their staff for design installation and operation of various industrial ventures.

Applied Materials Details Progress Towards Industrializing PV Solar

Monday, September 21st, 2009

HAMBURG, Germany–(BUSINESS WIRE)–At its annual solar analyst and press briefing today at the Photovoltaic Solar Energy Conference and Exhibition (PVSEC), Europe’s largest solar tradeshow, Applied Materials executives provided updates on Applied’s solar strategy, including highlights of the company’s business and technology roadmaps for both crystalline silicon (c-Si) and thin-film solar photovoltaics (PV). The company also announced a number of new c-Si solar PV products.

“We are seeing substantial progress in the global industrialization of the solar industry,” said Mike Splinter, chairman and CEO of Applied Materials. “The technology and products Applied is delivering allow our customers to improve solar panel efficiency and reduce cost per watt, leading us rapidly toward a future where solar proves itself as the cleanest, most logical and cost-effective way of generating power.”

Preparing for the Crystalline Silicon Factory of the Future

In his keynote presentation, Dr. Mark Pinto, chief technology officer and general manager of Applied’s Energy and Environmental Solutions Group (EES), highlighted how factories that make c-Si solar panels are becoming more technically advanced, with new process steps and automation boosting solar panel efficiency, lowering manufacturing cost, and driving up factory scale. New tools from Applied’s Precisions Wafering Systems and Baccini Cell Systems divisions are enabling thinner wafers, precision alignment and deposition, faster processing times and higher wafer throughput. Advanced automation is leading to better tool-to-tool process management, substantial material cost reductions and higher quality. The semiconductor industry serves as an example of how increasing investments in manufacturing technology can produce cost-effective gains in productivity and output and enable dramatic cost per watt reductions for end-users.

Pinto contrasted today’s mainstream c-Si factory running approximately 1,500 wafers per hour at 16% efficiency – with as much as 2% line breakage – with the “crystalline factory of the future.” With substantial improvements in equipment and full automation of facilities by 2012, Pinto predicted that output will double to more than 3,000 wafers per hour at greater than 20% efficiency – with breakage cut by more than half.

“To drive performance and reduce costs, the industry will become more technology-intensive, with new materials, applications, integration schemes, and factory automation and control,” said Pinto. “In the factory of the future, Applied expects to address over 55% of the c-Si PV solar manufacturing opportunity. With Applied’s capabilities in equipment and processes, we continue to look for new areas where we can work with our customers to increase their output, quality and profitability.”

A number of new products and developments were announced at PVSEC to help industrialize c-Si manufacturing:

  • Applied Baccini Esatto Technology™, a high precision, multi-step screen printing capability designed to increase the efficiency of c-Si solar cells by enabling the fabrication of advanced contact structures.
  • DuPont and Applied Materials announced a collaboration to advance multiple-printing technology for increasing the absolute efficiency of c-Si cells.
  • Applied HCT Diamond™ Squarer, an innovative new system with novel diamond wire technology, designed to reduces the cost of squaring silicon ingots by up to one-third while offering at least twice the cutting speed of conventional squaring processes.
  • The Applied HCT MaxEdge™ wire saw is now in volume production for PV wafering applications at key customers in Europe and Asia, including Wacker Schott Solar. The MaxEdge system revolutionized wire saw technology with the industry’s first dual-wire management system, enabling significantly higher throughput and load capacity than competitive systems, while requiring much less factory floor space and fewer operators for equivalent megawatt output.
  • LDK Solar qualified Applied’s HCT MaxEdge™ wire saws for volume production, as part of a large-scale expansion that includes the installation of more than 50 MaxEdge systems due to be completed in October.

SunFab Thin Film Lines Ramping Around the World

Pinto also provided a global update on the company’s SunFab thin film lines, which deliver the world’s largest PV solar panels, capable of producing over 500 watts each when using Applied’s tandem junction technology. Pinto provided performance data obtained from aperture only testing, which is the industry’s most consistent measure of conversion efficiency. The data showed that the tandem junction line in volume production today, is achieving greater than 9% stable aperture area efficiency in manufacturing.

“We continue to make progress in every aspect of the SunFab lines and are well on our way to delivering 10% efficient SunFab panels and per watt production costs in 2010, with modules demonstrating this efficiency in our laboratories today,” said Pinto. “This ramp is among the most aggressive in the history of the solar industry, adding more than 240 megawatts of solar panel manufacturing capacity in five countries in less than two years.”

Discussing the future of SunFab development, Pinto laid out plans for panels with 12% conversion efficiency and module costs below {content}.70/watt by 2012.

A Bright Future

George Davis, CFO discussed the FY 2010 financial outlook for the company’s solar businesses and its Energy and Environmental Solutions Group. Applied believes this new area of the company’s business will lead to increasing revenue and profitability as the global economy recovers and governments around the world look to technologies like PV solar panels, energy-efficient glass and LED lighting to help produce and conserve energy. Davis noted that Applied’s c-Si solar business is already generating positive returns and that the company’s EES segment is on track to operating profitability in 2010, excluding certain charges.

“We are moving out of the learning phase of this business to a point where we believe we can realize the true opportunity,” said Davis. “We have successfully integrated several acquisitions, launched numerous new products and are seeing renewed interest in our SunFab products. It is a very exciting time.”

More information available on Applied’s Web site

For further information about this event, including a webcast and slides, please visit Applied Materials’ website at: http://www.appliedmaterials.com/investors.

Read Article: Applied Materials Details Progress Towards Industrializing PV Solar





Intense Media Focus on Cleantech Industry Expands Market Opportunities for BioSolar and Other Green Companies

Monday, September 21st, 2009

SANTA CLARITA, Calif.–(BUSINESS WIRE)–Dr. David Lee, CEO of BioSolar (OTCBB:BSRC), developer of a breakthrough technology to produce bio-based materials from renewable plant sources that reduce the cost of photovoltaic solar cells, says that intense media coverage of cleantech innovations across energy sectors is helping to fuel market opportunities for green companies across the nation.

“As a company on the cusp of emerging from the research and development stage to commercialization, sustained media penetration has been essential in building BioSolar’s profile prior to production,” said Lee. “In today’s tough economic environment, companies across green segments are competing to increase visibility among key audiences, and we are pleased that we have been able to leverage our technological leadership to create a groundswell of media attention around our technological advances and commercialization plans.”

Hailed as a technology that “will reduce the cost of solar cells,” in a recent Printed Electronics World article, BioSolar recently filed a new patent application for its proprietary BioBacksheetTM-A, a bio-based backsheet featuring an absolute moisture barrier for the thin-film photovoltaic cell market, as reported in Semiconductor Today.

In a two-part Question and Answer with Energy Boom, Lee explains, “With the market for solar power already in explosive growth mode, BioSolar is singularly positioned to lead the development of truly sustainable and cost-effective solar technology.”

BioSolar’s backsheets are expected to cost significantly less than petroleum-based films currently in use by most solar module manufacturers. The BioBacksheetTM-C, designed for the traditional C-Si PV modules, will be the company’s first commercial product.

“Despite current economic conditions, the media is tapping into the growing public and investor interest in alternative energy technologies and helping innovative startups in the green energy space. Companies, like BioSolar, are rapidly coming to market with cost-efficient and environmentally friendly products that will fundamentally change the world.”

Read Article: Intense Media Focus on Cleantech Industry Expands Market Opportunities for BioSolar and Other Green Companies





RoseStreet Labs Discover Direct Solar to Hydrogen Production Method

Monday, September 21st, 2009

I’ve talked about direct solar to hydrogen production in the past including discoveries by the Dalian Institute of Chemical Physics in China, researchers at the California Institute of Technology and scientists at the National Institute of Standards and Technology (NIST) and Northeastern University.

This time I wish to talk about RoseStreet Labs in Phoenix, Arizona who have come up with a unique method of producing hydrogen directly from solar energy. The researchers used a photoelectrochemical cell (PEC) to spontaneously generate H2 without external power.

This discovery by RoseStreet Labs is coupled with their use of full spectrum Nitride Thin Film semiconductors. In the past, photovoltaic cells had been limited to using the ultraviolet range of the spectrum to produce direct solar to hydrogen. This new technology can use the full visible and non-visible spectrum of light to create hydrogen.

According to RoseStreet CEO Bob Forcier, “We are excited about this new development in capturing the full spectrum of the sun for not only instantaneous power generation, but also for energy storage via liquefied hydrogen or to assist the emerging biofuel and biodiesel efforts. Although this is a significant milestone in our scientific research in Nitride Thin Film photovoltaics, it also represents the opportunity to commercialize this technology to the next level with RoseStreet’s partners.”

RoseStreet has not announced, however, if they are using water as a feedstock for the direct solar energy or some other hydrogen rich chemical compound. No matter, since with the amount of R&D into direct solar to hydrogen technology it is only a stone’s throw away until commercialization becomes a reality in this field.

Prism Solar Technologies to Present at 2009 European Energy Venture Fair, Zurich, September 21-22

Monday, September 21st, 2009

Read Article: Prism Solar Technologies to Present at 2009 European Energy Venture Fair, Zurich, September 21-22 Prism Solar Technologies, Inc., a manufacturer of a unique holographic solar technology for solar-electric modules, today announced that Tom Kacandes, Director of Operations, will speak at the 2009 European Energy Venture Fair at the Swiss Re Center for Global Dialogue in Zurich, Switzerland on September 22 at 11am. “The Energy Venture Fair will hopefully result in successful partnerships for Prism Solar,” says Kacandes, “which is especially important as Prism Solar gears up to begin manufacturing holographic modules and film technology.”

Prism Solar Technologies to Present at 2009 European Energy Venture Fair, Zurich, September 21-22

Monday, September 21st, 2009

Read Article: Prism Solar Technologies to Present at 2009 European Energy Venture Fair, Zurich, September 21-22 Prism Solar Technologies, Inc., a manufacturer of a unique holographic solar technology for solar-electric modules, today announced that Tom Kacandes, Director of Operations, will speak at the 2009 European Energy Venture Fair at the Swiss Re Center for Global Dialogue in Zurich, Switzerland on September 22 at 11am. “The Energy Venture Fair will hopefully result in successful partnerships for Prism Solar,” says Kacandes, “which is especially important as Prism Solar gears up to begin manufacturing holographic modules and film technology.”

What happens next time?

Monday, September 21st, 2009

We build stronger houses and wield computer and communications technology that makes 1989’s look quaint. But all that, experts say, would only partially blunt the devastation of another Hugo-sized hurricane – one that might be increasingly likely to strike the Carolinas.

Google Developing Own Solar Thermal Technology

Monday, September 21st, 2009

google-solar-thermal
If you don’t like how something’s done, do it yourself.  Google is taking that idea to heart when it comes to solar thermal technology.  The company has been disappointed with the progress in this sector, so it’s developing its own mirror technology that will supposedly make solar energy cheaper by at least half.

Google is experimenting with different materials for making the mirrors, trying to find an efficient and cheaper solution.  The company wants to cut the cost solar thermal installations by half, but hopefully by 66 – 75 percent.  Currently, a 250-MW solar thermal installation produces energy at a rate of about 12 – 14 cents/kWh.  The company would like to develop a product that would lower that cost to 5 cents or less per kWh.

The company is planning on having a prototype ready for internal presentation within the next couple of months.  Then they will perform aggressive testing to make sure the technology can withstand decades of wear.

Google is also working to develop a gas turbine that would run on solar power instead of natural gas that could lower electricity costs even further.

via Reuters

Eco Architecture: Architect envisions world’s tallest skyscraper to be off-grid

Tuesday, September 15th, 2009

tommy landau skyscraper

Eco Factor: World’s tallest skyscraper designed for Abu Dhabi will rely on renewable energy for power.

After using the latest in solar technology to power your gadgets and your homes, designers are envisioning tall structures that could use the future of solar technology for net-zero energy credentials. Tommy Landau thinks he can give the world its tallest skyscraper, a whopping 224-story-tall tower, which will rely on renewable energy for power.

(more…)

GE Jumps Into Offshore Wind Biz, Buys ScanWind

Tuesday, September 15th, 2009

wind_turb_mainGeneral Electric has never hidden its intention to gobble up startups with promising technology in order to expand its business. The conglomerate followed through on that promise again on Monday with the announcement that its energy division has acquired ScanWind, a Norwegian developer of advanced drive train wind turbine technologies for offshore wind projects.

Financial details of the acquisition weren’t revealed, but the deal should boost GE’s position in the emerging offshore wind industry. GE is one of the world’s largest wind turbine manufacturers with more than 12,000 of its turbines deployed at onshore installations globally. But onshore wind technology can’t be used for offshore applications without significant changes because of different environmental conditions and the need for larger turbines when offshore. That’s why GE currently only has one offshore installation, a 3.6 megawatt turbine at a demonstration facility off the coast of Arklow, Ireland.

ScanWind, founded in 1999, has 11 turbines operating on the Norwegian coast, and GE says its technology reduces maintenance costs and increases reliability, both important characteristics for offshore applications. “We think we can take our experience onshore with what we’ve learned at Arklow, take the technology from ScanWind, improve and enhance it, scale it, and roll out an offshore product,” Milissa Rocker, a spokeswoman for GE, told us. The company hopes to have its offshore wind turbines commercially available by late 2012 or early 2013, Rocker said.

GE is an important entrant in the offshore wind technology market. Offshore wind has been hampered by high costs, the recession, and NIMBY-ism, and a variety of big players have backed out of high-profile projects in recent years. But GE seems to be a big believer in the market, and notes in its release that offshore wind installations are expected to see a 20-fold global increase by 2020, to 30 GW, from an installed base of 1.5 GW in 2008.



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JA Solar Teams Up With Innovalight On Next-Gen Products (JASO)

Tuesday, September 15th, 2009

JA Solar just announced that it is working with Innovalight, Inc. to
develop new, next-generation solar products that use silicon ink
technology to achieve better performance and conversion efficiency.
Innovalight, the originators of the technology, recently achieved a
record of 18 percent conversion efficiency in tests with these
products. JA Solar plans to introduce solar panels using this
technology to the commercial market by 2010.

In a…



go to solarfeeds for the rest of this story>>>>>

Read Article: JA Solar Teams Up With Innovalight On Next-Gen Products (JASO)

Whopper Of An Idea Tested At BK

Tuesday, September 15th, 2009

Renewable energy technology developer New Energy Technologies, Inc. have conducted the first-ever durability field-tests of the company’s prototype MotionPower technology for generating electricity from the motion of cars and light trucks.

Indian Electric Car Company Plans New Models

Tuesday, September 15th, 2009

revaIndia’s Reva electric car company has been producing low-speed, low-cost electric vehicles for it’s home country for sometime now. Now they’ll be launching two new models and some very peculiar sounding charging technology at the Frankfurt Motor Show.

The new modles include the NXR, a four-seat, three-door “family car” and the NXG, a two-seat sportster (with a removable roof!)

The “family” NXR will be available in 2010, and Reva will be taking orders for the car at the show. Unfortunately, we don’t have numbers on range or top speed, for those of you who might be there and interested in ordering one. The NXG, on the other hand, is slotted for 2011 release.

In addition to this somewhat exciting, but not-too-unexpected news comes the announcement that Reva will be releasing a new charging technology called “REVive.” According to their press release, the system will allow you to text REVA for an “an instant remote recharge should they run out of charge.” Unless Reva has solved one of the 21st centuries most pressing problems (wireless energy transfer) then this is just a reserve tank that’s already in your car, but doesn’t get released until you text it.

It’s a psychological trick, and a bit of a silly one, but with the amount electric vehicles are complaining about “range anxiety” I’m willing to give them credit for trying something new.

Via AutoBlogGreen

Southwest Windpower Secures Additional Funding

Monday, August 31st, 2009

Southwest Windpower has secured additional financing to accelerate its expansion in Europe, Asia, Australia and other new markets and to support additional product development. PCG Clean Energy and Technology Fund participated in the round for an undisclosed amount. Other current investors that participated are Altira, GE Energy Financial Services, NGP Energy Technology Partners, and Rockport Capital Partners.

Daily Sprout

Monday, August 31st, 2009

Biofuels Go Bust: “The wave of biodiesel failures,” combined with the inability of Khosla-backed Cello Energy “to produce even a fraction of what it expected have spooked private investors, which could further delay technology breakthroughs and derail the government’s green energy objectives.” — Wall Street Journal

Cali’s eBay Approach to Energy: California utility regulators have proposed a “reverse auction market” feed-in tariff for renewable energy projects in which developers would bid on power purchase agreements. The energy company offering the lowest electricity rate to utilities in a given project would win the contract. — NYT’s Green Inc.

Climate Policy More Popular Than Health Care?: While Obama’s health care has been staggering in the polls lately, his energy policies — including the proposed cap and trade system — have relatively broad support. — TNR’s The Vine

DOE Throws a Bone to Hydrogen: “After trying to cut research funding by hundreds of millions for hydrogen technology (most of which was restored by Congress) the Department of Energy has announced a million prize for a hydrogen technology breakthrough…But plenty of rules, red tape, and a short deadline may shortchange this contest of its best entrants.” — Gas 2.0, Edmunds Green Car Advisor

EnerG2 Eyes Japan: Department of Energy grant winner EnerG2 plans to expand its reach in Japan. The Seattle-based energy storage startup announced plans today to start visiting customers, device manufacturers and scientists in the countyr in order to build “a long-term customer support presence” there. — Press Release



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Battery Startup Seeo Raises $8.6M, With Khosla Back for More

Monday, August 31st, 2009

Vinod Khosla, one of Silicon Valley’s biggest cleantech backers and the founder of Sun Microsystems, may be keeping an eye on the hype about lithium-ion batteries, but the venture capitalist is still excited about one of his earlier lithium battery plays: Seeo. The stealthy startup, which is developing a nano-structured lithium-polymer battery, has raised more than .6 million in new funding, according to regulatory filings picked up by peHUB this morning, and investors in the round include Khosla’s firm, Khosla Ventures.

Seeo, based in Berkeley, Calif., has now raised a total of more than .6 million for its solid-state battery, which is based on a solid polymer electrolyte that the founders developed at the Lawrence Berkeley National Lab. The material, which Seeo began licensing from the lab in 2007, allows for a more stable battery with higher energy density and none of the flammable liquid electrolytes that present a safety risk in conventional lithium-ion batteries.

According to founder and technology director Mohit Singh, the company’s batteries can operate at a much higher temperature than competing devices, which means it can be used in rugged, outdoor applications — attached to a solar system, for example. The Berkeley Lab also anticipates applications for technology like Seeo’s in electric vehicles, and says the startup’s batteries are on track to achieve the U.S. Advanced Battery Consortium’s 5,000-cycle goal for plug-in vehicle batteries.

Seeo remains very tight-lipped about its technology, strategy and commercialization plans. But when I spoke with some of the startup’s team this week at IBM’s Almaden Institute, they shared Khosla’s take that lithium-ion batteries don’t represent a silver bullet for all energy storage challenges. And materials development director Hany Eitouni said he agreed with Ford’s Ted Miller, who spoke at the event and showed a slide depicting “evolution” of lithium-ion batteries through around 2017 — and then a “revolutionary technology change” after that. Will we really see such a shift in that time frame? We’ll have to, Eitouni said.

In the meantime, the company (and Khosla, through his investments) is jockeying to snag a piece of an increasingly competitive and growing market. Despite the hype, Khosla has said, “Lithium-ion markets are here today. We’re investing because there are good markets.”



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Why IBM’s Betting on Lithium Air Batteries: Nanotech and Supercomputers

Monday, August 31st, 2009

Usually when IBM catches our eye with a cleantech play these days, it’s related to the smart grid: Big Blue has developed a variety of software to give utilities more intelligence on the power grid, and the computing giant’s Energy & Utilities chief, Guido Bartels, ranks among our top 15 smart grid influencers.

But in June IBM launched an ambitious battery project with several partners (including national labs), with a goal to commercialize an experimental battery technology — lithium metal-air — and to achieve at least 10 times the energy density of today’s batteries. And this week, the company is hosting a gathering of some of the world’s top battery researchers, auto companies and others involved with batteries for electric cars, to talk about moving beyond lithium-ion, the battery technology of choice for mass market electric cars now in the pipeline at companies including Nissan, General Motors and Tesla Motors.

So what’s IBM doing with lithium air — a risky technology that uses “highly flammable lithium metal to react with oxygen in the air,” as Technology Review explained recently. According to Winfried Wilcke, Senior Manager of Nanoscale Science & Technology, and Program Director of Silicon Valley Projects for IBM’s Almaden Research Center, the project plugs into IBM’s expertise in two main areas: nanotechnology and supercomputers.

Lithium-air batteries will require “really sophisticated nanostructures” in order to keep water out and let oxygen in, says Wilcke. IBM has been working on its nanotech research for years, particularly in micro electronic mechanical systems. One of the keys to cracking the lithium-air battery code could also be supercomputers said Wilcke (they’ll be used to model potential catalysts) — also one of IBM’s specialties.

Even with IBM’s work, the battery technology is still a long shot. According to Dalhousie University’s Jeff Dahn, who spoke today at Almaden, “rechargeable lithium air…will be very very challenging. I wouldn’t bet the farm on this, but it has to be explored.”

IBM now has a team of 6-10 people working on the project, and it’s growing. Wicke said he expects the basic science questions to be answered within three years, at a cost of tens of millions of dollars (for all the partners combined — IBM’s own financial contribution remains “in flux”).

Why lithium air? “It’s the only system that has a chance to be as good as gasoline” and make a significant dent in transportation fuel, according to Wilcke. But it’s far from proven, and “lithium ion is not going to go away anytime soon,” he said. “There could be big boulders and pebbles flying in our face, but we see a path.”



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For Next-Gen Batteries Look to Universities — and the Rare Startup

Monday, August 31st, 2009

PlugIn1Governments and many companies in the U.S. and Europe all but forgot about battery innovation over the last 10-15 years, according to Joerg Huslage, the group leader for electrochemistry at Volkswagen. But with a growing number of automakers now jumping headlong into plug-in vehicle development, and already approaching the limits of lithium-ion (the battery technology of choice for the upcoming generation of electric cars) researchers are now in a high-stakes race to produce the next generation of plug-in vehicle energy storage technology that will have higher energy density, cost less, and last longer than today’s batteries.

Demand for energy storage technology that will replace lithium ion is “tremendous,” Huslage said this morning at IBM’s Almaden Institute — an event that focused on the topic of going beyond lithium-ion batteries. Investors have certainly been concentrating on what will come next, and Vinod Khosla recently went so far as to call lithium-ion a tech that has been “overhyped,” and will “possibly be replaced.”

Now that leaves a lot of questions about where the innovation will come from, who will be developing the breakthroughs and what type of technology will emerge. Will it come out of China, Japan or the underdogs in this race: Europe and the U.S.? Volkswagen, for one, has taken steps to utilize battery tech out of Asia. The German automaker has a partnership with Sanyo Electric to develop batteries for plug-in vehicles, another arrangement with Toshiba for an upcoming electric concept, and in May, announced a deal with China-based BYD Auto to test the Warren Buffett-backed company’s lithium-ion battery technology for upcoming VW cars.

As for who will produce key innovations, Huslage says his money’s on PhD students. That presents somewhat of a handicap for the U.S., he said, noting the declining interest from foreign students in doing graduate and post-graduate work here. As BusinessWeek reported last week, international admissions to U.S. grad schools fell sharply this year — the first decline since 2004, largely because of “the deteriorating job market and problems with visas and financing.”

Startups on the other hand, he said, are swimming upstream — more so in the battery sector than in most others. “It’s easier to build a car” than a battery with 10 times the energy density of today’s devices. As a rule, Huslage said, “Small startups cannot do this.”

One area of battery development that could offer better fodder for entrepreneurs, however, is new materials, said Huslage. And he expects at least some startups, spun out of university labs, to come up with “small solutions” (a groundbreaking electrolyte, for example) that end up making a big difference in battery capacity and performance.

What types of energy storage will emerge after lihtium-ion? Butron Richter, Nobel laureate and director emeritus of the Stanford Linear Accelerator Center, said yesterday, “Some of the experts here say lithium air is the best possible battery,” referring to the battery technology that the summit’s host, IBM plans to develop over the next five years. But “there’s a lot of the periodic table that’s unexplored.”



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