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California’s 1-Gigawatt Solar Milestone: What Does It Mean?

Submitted by jason on Tue, 09/11/2012 - 03:00

Topping one gigawatt in solar power production on a hot August day was a milestone that both shows how far California has come with solar power and how far it has to go.

The California Independent System Operator (CAISO), which runs the state’s grid, said the state cracked one gigawatt for the first time and hit a utility-scale solar generation peak of 1,003 megawatts on Tuesday, Aug. 14.

First time over the one gigawatt mark (image via California ISO)

That record of 1,003 megawatts has since been broken several times, with the latest high-water (high-sunlight?) mark coming on Friday, Aug. 31, at 1,076 megawatts. CAISO says one megawatt can meet the instantaneous demand of at least 750 homes, so in these instances, solar was powering more than 750,000 California homes.

Peak output is just a snapshot in time, however, and solar’s climb over the one-gigawatt barrier invites a closer look at how solar fits into the Golden State’s energy picture. Let’s go back to Aug. 14 to get a sense of that.

Solar generating stations began to trickle power onto the grid around 6 a.m. Production climbed throughout the morning, peaking around 1 p.m. It began to slide very slowly in the next couple hours, was off 10 percent by 3 p.m., and then took a steeper drop. By 6 p.m. it was down to half of what it had been six hours earlier. By 10 p.m., the last solar-inspired electrons had moved.

It all added up to 8,843 megawatt-hours of electricity flowing onto the grid, out of 869,260 megawatt-hours of electricity used by Californians that day. That means wholesale solar accounted for almost exactly one percent of the day’s electricity demand. (Wind power, meanwhile, met 3.7 percent of the day’s electricity demand.)

Renewables production, Aug. 14, 2012 (image via California ISO)

This makes the point, if it wasn’t already obvious, that solar has a great distance to travel before it can be seen as a big contributor in meeting California’s electricity needs. But it’s hardly enough to dismiss solar, for a couple of reasons.

First, go back to Aug. 14, 2010, and on that day, you’ll find solar’s contribution to the grid to be less than three-fifths what it was on Aug. 14, 2012. From 0.6 percent to 1 percent of total generation might sound small, but it’s a big jump in just two years, and with several utility-scale plants in development -- giant ones like Solar Ranch One in the Antelope Valley and Ivanpah in the Mojave Desert, and many smaller ones, too -- there’s no reason to think growth won't continue at a fast or even accelerating pace.

Plus, remember, we’re talking only about wholesale solar here. California also has more than 1 gigawatt of solar capacity behind meters -- on the roofs of businesses and homes all over the state -- that isn’t included in the California ISO totals. As Vote Solar noted, “When you add the 1.2 gigawatt and counting of customer-owned solar generation that serves onsite load, the total more than doubles.” And that total is growing fast, too.

***

Editor's note: This article is reposted in its original form from EarthTechling. Author credit goes to Pete Danko.

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Is Ampt’s HD PV Alliance an Answer to Lower Solar Costs?

Submitted by jason on Tue, 09/11/2012 - 03:00

Ampt has a proprietary power conversion technology protected by patents. But to use it effectively, it must be part of a solar system’s architecture. The economics of building that entire architecture, inverter, junction box and panel, is presently unworkable.

The alternative is a partnership with inverter, junction box and solar module makers. The High Definition PV Alliance is Ampt’s solution. The partners get access to Ampt’s technology, Ampt gets a place in the system architecture and solar system builders get potentially impressive cost savings.

“By ourselves, Ampt would be challenged to provide these cost savings,” acknowledged Ampt Sales and Marketing VP Evan Vogel. The Alliance’s set of business partnerships is “an end-to-end pre-tested solution that is predictable and characterized,” Vogel said, “and at a lower system cost.

On the soon-to-be-launched HD PV website, Vogel said, a system builder can compare solutions from inverter partners KACO New Energy, REFUsol and LTI REEnergy. Shoals Technologies and Amphenol have signed on as junction box partners and, Vogel said, “new partners are lining up quickly.” Solar module vendors Suniva, ZNShine, Upsolar and Eoplly are on board, as are monitoring service providers meteocontrol, Next Generation Energy, AlsoEnergy, and DECK Monitoring.

“Alliances are the way that companies join together but in solar it has never happened,” Vogel explained, because the best alliance partners are one another’s competitors.

“The reason they have come to this alliance,” Vogel said, is they recognize the patented Ampt technology provides a unique ability to drive down system cost, and they want to be a part of it.” Competitors have seen the benefit of signing on to Ampt’s Alliance, he said, “because they recognize it will change how utility-scale systems will be built in the near future.”

“Power conversion electronics prepares the power coming from the solar panel for the inverter,” Vogel explained. “Tigo does something similar. That’s the class of product we fall in.”

Ampt’s patented device “can’t take cost out of the inverter, but we can facilitate a much lower cost inverter,” Vogel said.

“Power conversion of any kind likes to have a well-conditioned, narrow-ranged, very predictable input,” Vogel explained. “The problem for solar inverters is that solar modules are not going to give them that. What we do is prepare the power coming from the solar panel." That, he said, alters inverter capability.

“LTI has a 600-kilowatt station. Without our devices at the junction boxes on the back of each panel, you would need five of the 600-kilowatt inverters for a three-megawatt installation. But the Ampt device conditions the power so that a 600-kilowatt inverter can turn a megawatt of DC into AC, Vogel explained. “So instead of needing five, only three are necessary.”

And, he added, “when that inverter went from 600 kilowatts to a megawatt, in terms of dollars per watt, the price of the box itself doesn’t change, but the dollars-per-watt on a system level went down 40 percent. That’s a big change.”

The Shoals MultiLink Junction Box “is set up with a pair of connectors that we clip and lock into. If it takes a minute, that’s a lot,” he said. “And the electronics have the same warranty as the solar module: 25 years.”

The solar industry, Vogel said, “is driving maniacally toward lower cost. For everybody we speak to, whatever piece of the puzzle they provide, they are getting pounded on for price.” The Alliance “can take cost out of the system with an architecture change. There is no way to accelerate that other than, we think, architecture changes.”

Because the Ampt power conversion device operates in utility-scale projects at the panel level instead of the string or multiple string level, Vogel added, every panel generates as much as possible at any given moment, with an average four percent per panel increase.

Ampt’s biggest actual installation to date is a 100-kilowatt system. “The interface is just now becoming a reality,” Vogel acknowledged, because until now, “the labor to install our technology on an individual panel level worked against our cost savings.” With the snap in connectors, that has been remedied. And the devices and connectors are TUV- and UL-approved, Vogel noted.

“We have smaller commercial systems that people are using as the litmus test to go into very high volume and higher-powered systems. We are transitioning from the smaller scale to some very large opportunities in installations we will be doing in 2013," he said.

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Infosys: Smart Grid Integrator, From India to the World

Submitted by jason on Tue, 09/11/2012 - 03:00

As a company that has defined the concept of IT outsourcing since the 1990s, Infosys (Nasdaq: INFY) has had plenty of experience fitting new technologies into the business models of diverse industries. That includes its Energy, Utilities, Communications and Services group, with 19,000 employees and annual revenues of some $1.4 billion -- a big business, if only a small part of the 150,000-employee company.  

Now, as it faces increasing competition in its core business of writing code for hire, Infosys is striving to define itself as a specialty IT provider for certain key growth sectors -- including the smart grid.

As befits a company of its nature, that work spans continents, as well as various different types of power entities facing vastly different challenges. Those can range from the big India grid operators, now facing a new level of scrutiny after the country’s 600-million-person blackout last month, to small players like Fayetteville, N.C.’s public works commission, that need help linking their customer service call centers with their new smart grid systems. It also works with smart grid partners such as Oracle (Nasdaq: ORCL), Cisco (Nasdaq: CSCO), SAP (NYSE: SAP), Alstom and General Electric (NYSE: GE), to name a few.

So how is Infosys tackling the smart grid? At the highest level, the Bangalore-based giant works as an IT systems integrator and project manager, akin to its rival Indian outsourcing giants Wipro and Tata, or international giants like IBM (NYSE: IBM), Accenture (NYSE: ACN), CapGemini or Logica. Like these sometime-rivals, sometime-partners, Infosys has years of work with utilities to know where the “white space” in the industry lies, Ashiss Kumar Dash, AVP and group manager of the company’s Utilities Smart Grid Practice, said.

Specifically, Infosys has developed a suite of hardware-software solutions to drop into utilities as a hosted or managed service, he said. These include customer-billing platforms that incorporate new mobile and online payment methods popular with India’s power retailers, as well as a “utility-in-a-box” product that connects smart meter data management to small to mid-size utility back offices.

Infosys also has a power generation and renewable energy practice, working with partners like Alstom in Europe to manage distributed generation assets in ways that may fit well with India’s goals to boost off-grid power for rural populations. And at the high end, the company’s “smart integrator” product helps link diverse utility IT assets, from SCADA and cellular-linked outage management and mobile workforce platforms, to bill collection and theft detection analytics in the cloud.

There's plenty of need for heavy IT lifting in the utility space -- GTM Research projects that U.S. utilities will spend $8.2 billion on enterprise IT from 2011 to 2015 as they struggle to manage the flood of data that’s coming from smart grid deployments and integrate it into legacy IT systems. How will Infosys' offerings fit into that landscape? Here’s a quick breakdown of some of Infosys’ key smart grid efforts, as described by Dash in an interview last week:

- The “Utility-in-a-Box” product. This is one of Infosys’ newest smart grid products, built specifically for utilities with fewer than 500,000 customers. In simple terms, it’s a standards-based hardware with a set of pre-configured customer service, billing, meter data management and regulatory compliance tools, all built on SAP utility software, but with a much faster implementation timeframe than a typical SAP deployment (here’s a PDF with some more details).

Right now the UIAB, as it’s dubbed, is being used by two unnamed utilities in India, with three more checking it out, Dash said. India’s utility market is a “very interesting” place to do business, he said, with lots of entrepreneurship underway in the regions of the country where market deregulation has allowed retail power providers to compete for customers.

While India’s megacities like Delhi and Mumbai are the realm of big energy retailers like Reliance Energy, B.E.S.T., Torrent Energy and Tata Power, much of the rest of the country is more open to different competitive models, with the relationships between traditional power distribution entities and customer-focused retail and billing specialists now being worked out, he said.

In the United States, Infosys is working with Oracle on something called a Meter Data Management Appliance, which takes Oracle’s MDM and pre-configures it so it can be quickly integrated into all the utility’s other back-end systems, he said. Oracle and Infosys also promise that the integrated system will comply with regulations on how to validate and report on the flood of data coming in from smart meters -- an important factor for smaller utilities that lack the in-house funds and expertise to do so, he said. The two are working together in Fayetteville, and Dash said that they’re talking with other U.S. utilities as well.

- The “Customer Self-Service Energy Manager” platform. As the country famous for showing that cellular communications can “leapfrog” land-line telephone service, India is on the cutting edge of finding new and easy ways for customers to use mobile devices to pay their power bills. At the same time, India has some of the worst “non-technical” losses (i.e., power theft) in the world, putting the development of new technology to catch freeloaders -- and to encourage marginal customers to pay their bills -- on the top of many utility must-do lists.

To tackle these challenges, Infosys has developed a “customer self-service” product for utilities to link up utility back-office billing and customer management platforms to an array of web, smart phone, smart tablet and cell-phone-based communications, Dash said.

In the United States, where most people tend to communicate with their utility via postal mail, mobile and web-based billing is still confined to a relatively small subset of the population. Of course, lots of smart meter and consumer engagement projects are seeking to change that, with companies like Opower, Silver Spring Networks, Aclara, Tendril and dozens more applying their technological chops to back-end utility management and front-end customer engagement in one way or another. 

Infosys’ new product is aiming at a similar level of functionality, integrating core utility account management and usage analysis tools with customer-facing social media campaigns, Facebook links and the like. At the same time, it’s enabling the hundreds of millions of “feature phones” out there to participate in the smart grid billing revolution, via SMS text message interactive voice response systems and other such methods.

While most of its utility customers still work on a managed service model, Infosys is working more and more with “risk-reward” type contracts, in which it guarantees business outcomes and then earns a profit based on how well it can exceed them, Kumar noted. That could be an interesting new way to test various propositions around better customer engagement -- along with better customer data acquisition and tracking -- to both keep customers happy, and keep their payments flowing promptly to the utility.

- The “Smart Integrator” platform. Utilities have a bewildering array of legacy technologies that need to be integrated to the platforms that run more sophisticated gear like smart meters, distribution automation equipment and Common Information Model (CIM)-based platforms for the buying and selling of power across region-wide grids.

To help out that process, Infosys has created a “smart integrator” platform that works like a hub for multiple grid-facing tools and technologies, Dash said. Those can include meter data management (MDM), geographic information systems (GIS), outage management systems (OMS), distribution management systems (DMS), asset management systems and all the other IT systems that typically don’t talk in utilities today. 

Infosys has designed the platform as an enterprise service bus, with business logic and rules to make sense of different types of data based on different use cases that a utility might look at, he said. For example, it can pull information from meter data management, transformer asset management, geographical information systems and other sources, and then come up with a list of conclusions as to what’s happening at that point in the grid. Theoretically, it could even create work orders for work crews to go fix the problem, and then report back on their progress via their mobile devices, he said.

Greentech Media has covered some of the important advantages of loosely coupling siloed utility IT systems via ESBs and other service-oriented architecture approaches, versus the more common style of linking them on a one-to-one basis via application programming interfaces (APIs). We’ve also covered the challenges that utilities will face in trying to get multi-system integration to achieve goals like real-time grid awareness or complex data analysis.

Infosys has deployed parts of its integrator product for utilities in Europe, as well as for U.S. utilities such as New Mexico’s PNM, Dash said. For the most part, it’s being deployed on a case-by-case basis to integrate new systems that Infosys utility customers are deploying, he said. But it’s also a centerpiece to work with partners like Alstom, which has enlisted Infosys as an integration partner in Europe, as well as in several projects in the United States, he said, though he wouldn’t name them.

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Even With RFS, Ethanol Can’t Escape Drought Impact

Submitted by jason on Tue, 09/11/2012 - 03:00

It’s become less profitable to make ethanol from corn during this summer of drought in the United States, and less of it is being made.

The U.S. Energy Information Agency reported last week that high corn prices have driven down the profitability of producing ethanol from corn, stating that “ethanol producers may already be cutting back production, as July was the lowest month for ethanol production in the last two years.”

A U.S. renewable fuel standard (RFS) requires blenders to work 13.2 billion gallons of ethanol into gasoline this year. In a normal year, that would eat up about 40 percent of the corn crop. Due to drought, however, this year’s crop has been forecast to come in around 25 percent smaller than normal, so theoretically ethanol would siphon off a greater proportion.

That has spurred a debate about the RFS. The head of the United Nations Food and Agriculture Organization said in early August that waiving the RFS would help ease global food pressures. But it would be misleading to cast this as strictly a food vs. fuel debate. 'Money vs. money' might be equally accurate. On one side are agribusinesses that make ethanol -- they want to keep the RFS in place -- and on the other side are cattle and pork growers, who’d love to see it go away.

The Obama administration -- most notably Agriculture Secretary Tom Vilsack -- has stood firmly behind the RFS, agreeing with the ethanol industry that the program has the flexibility to allow the market to balance out supply and demand pulls and pushes. “The market is already adjusting to lower crop production,” Vilsack said last month in Nebraska. “We should let the market work.”

Defenders of the mandate have pointed to an Iowa State study [PDF] produced in July that found that a reduction in the mandate this year -- or even waiving it entirely -- would have a modest effect on corn prices. The main reason cited was that the RFS already allows obligated parties to carry over blending credits from previous years, which “significantly lowers the economic impacts of a short crop.”

Ethanol interests also dispute the claim that they use 40 percent or more of the corn crop. The industry group Growth Energy says that because just one-third of the kernel is used for ethanol and the protein, fiber and oil are returned to the food chain in the form of high-protein animal feed. So in the end, they claim, just 16 percent of the corn acres harvested goes to ethanol production.

Still, the Environmental Protection Agency, in response to requests for waivers by some governors, has opened a comment period [PDF], through Sept. 26, on the RFS. Meanwhile, even with the RFS still in place, the ethanol industry has been feeling some pain. With little leverage to raise prices for ethanol, the high price of corn has put a squeeze on ethanol plants.

This squeeze can be seen in the 'corn spread,' which measures corn’s impact on the price of ethanol. It’s the per-bushel price of corn divided by 2.8 (the average number of gallons of ethanol produced from a bushel of corn) subtracted from the per-gallon price of ethanol. The corn spread dropped 22 cents since early June, the EIA said. “A negative spread does not necessarily mean that producers are losing money by making ethanol, since the leftover feedstock and other byproducts can be sold,” the agency reported. “However, the $0.22 per gallon drop in the spread since early June has reduced profitability.”

The Renewable Fuels Association, another industry group, told NPR that 10 percent of the nation’s ethanol plants are offline, with the remainder running at 75 percent to 80 percent of capacity.

Meanwhile, one thing folks around the country might wonder is if this summer’s high corn prices have helped drive up gasoline prices. No, the EIA said. “Ethanol is a component of gasoline after blending; however, there is little evidence of the rising corn prices affecting the current price of gasoline,” the EIA reported. “The ratio of the price of gasoline to the price of petroleum (called a 'crack spread') has remained relatively constant, indicating that the rise in cost of gasoline was largely due to the rise in cost of crude oil, and not because of issues specifically related to the gasoline or ethanol markets.”

***

Editor's note: This article is reposted in its original form from EarthTechling. Author credit goes to Pete Danko.

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California is in the midst of developing its substantial renewable resources, but to keep costs low it is important to balance in-state generation with imports from other high-quality resource areas across the West.  

Several independently developed transmission projects propose to connect these high-quality resources directly to California through high voltage direct current (HVDC) lines. As California moves beyond its 33 percent Renewable Portfolio Standard goal [?--Ed.] and strives for deeper reductions in harmful emissions, having the option to import renewable energy becomes even more important. 

If utilities or generators want to take advantage of this option when these projects come to fruition, we need a more open transmission planning process.  If these lines are developed, utilities can then pay for the right to move energy along the new HVDC lines. The result is clean power, delivered at a price well below what many utilities might have to pay if there are no out of state options available.

Despite their potential benefits, the current process used by the California Independent System Operator (CAISO) prevents interstate HVDC projects from competing on a level playing field with other energy options available to California. Ideally, an HVDC project capable of delivering a certain amount of energy to a certain spot in California would be considered in the same manner as, for instance, a new in-state solar project. Instead, the CAISO relies on the output of a complicated spreadsheet model developed by the California Public Utilities Commission (CPUC) to tell it where energy projects will most likely be located and how much the power will cost. 

The CAISO then creates a transmission plan that includes new lines built to those areas that score best in this “RPS Calculator.”  Wind and solar resources served by new HVDC lines are at a disadvantage in this process: the Calculator does not accurately reflect the quality of out-of-state resource areas, or the efficiency of HVDC transmission lines. While the CAISO does allow projects outside of those identified through the RPS Calculator Process to be considered in its annual transmission plan, the types of projects eligible for consideration do not provide a means to study an HVDC transmission line to deliver stranded renewable resources other than resources identified, once again, through the RPS Calculator Process. 

When the CAISO released its 2011-2012 annual transmission plan, interstate HVDC projects were not included.

To connect with the existing electricity grid, generation projects must file a request with the CAISO and then be studied to determine if their proposed amount of injected energy can be supported by the current infrastructure. Sometimes, these studies identify upgrades that need to be made to the existing transmission system before a new generation project can safely interconnect. If a generation project applies for interconnection from an area that scores high on the RPS Calculator, any necessary upgrades are likely to be included in the CAISO annual plan and funded, at least partially, by ratepayers. 

A generation project that plans to use a new HVDC line to interconnect to California, but finds that the HVDC line is not included in the CAISO plan, is suddenly left in no-man’s land despite the fact that the cost of its delivered energy may be less expensive inclusive of the cost of the HVDC transmission delivery service to move the energy into California. As an awkward work-around, HVDC projects have attempted to file for interconnection to the CAISO as generators. Predictably, this leads to more delays and confusion as the CAISO process imposes generation-specific requirements, like site exclusivity covering half a project’s footprint, that are unattainable for lengthy HVDC projects within the necessary timeframe.

At a minimum, assumptions in the RPS Calculator should be updated to reflect current resource profiles and project costs.

The CAISO should seriously consider whether a top-down, hyper-complex model is the best way to plan transmission for the state’s renewable energy build-out. As pointed out in this article, there is a cost associated with ever more confusing and inconsistent policies. In the case of interstate HVDC projects, ratepayers run the risk of missing out on lower-cost energy options.

One possible solution would be to create a separate interconnection process for interstate HVDC transmission lines. Modeled on the current Generation Interconnection and Deliverability Allocation Procedures (GIDAP), this process would lead to a Large Facility Interconnection Agreement (LFIA) as opposed to a Large Generator Interconnection Agreement (LGIA). There’s a precedent for this: In 2011, FERC approved a modified LGIA between the New York Independent System Operator, Consolidated Edison, and Hudson Transmission Partners for an HVDC facility. 

By creating a separate, transparent process, the CAISO would be able to assess the potential benefits of HVDC facilities without relying on the assumptions of the RPS calculator, or worse, on an HVDC project’s ability to navigate an interconnection process designed for generators. The result would be a more complete set of renewable, low-cost energy options for people and businesses in California.

***
 

Daniel Hodges-Copple serves as a development analyst on the Centennial West Clean Line project, a 3,500-megawatt high voltage direct current transmission line aiming to deliver renewable power from northeastern New Mexico to communities in California.

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Lessons From the Past Ten Years: Fragmentation

Submitted by jason on Tue, 09/11/2012 - 03:00

One thing I've learned as an investor that is true beyond cleantech: offering a compelling value proposition to customers is important, but it's not sufficient for a startup to be able to grow revenues quickly.

Growing revenues rapidly as a startup (with limited marketing resources, brand recognition, etc.) requires essentially fishing in a barrel. You need a concentration of either customer mindshare, or of actual customers. The best situation, of course, is to have both: a bunch of easy-to-find customers who all put a priority on the problem you're solving. That way you can quickly and cheaply reach new customers, you get their attention, and you quickly convince them to open up their wallets.

But that's not always possible, and it's not fully necessary. Flipping that around to put it another way, you can get away with having either customers with fragmented mindshare, or highly fragmented customers, but not both. 

The problem is that, for many opportunity areas in cleantech, such as building energy efficiency solutions, agriculture solutions, alternative vehicles, etc., the startup is indeed presented with both challenges simultaneously. These are highly fragmented markets, and while the customers would all agree that operating improvements are a priority, it's rarely their top priority on a day-to-day basis.

I believe this is one reason why building energy-efficiency solutions have typically found it hard to scale. The building owners and managers who place a high priority on energy improvements and happen to be in a position to carry them out (e.g., a budget is in place, perhaps a general retrofit is already scheduled) are out there -- but they're highly scattered.  And the rest will nod their heads and often take a meeting, but always find a reason (or a distraction) not to say yes. So we've seen a lot of very interesting energy solutions for residential, commercial and industrial customers that have failed to grow revenues rapidly, because the cost of customer acquisition is high in terms of both dollars and time (both of which can be deadly to a startup).

The saving grace for cleatech entrepreneurs facing this challenge, however, is that these markets are just so darn big. Billions of dollars of potential markets are just waiting to be tapped. Even if only a small portion of those markets are truly receptive and eager at any given time, that small portion still adds up to a very attractive market -- if you can find it.

Unfortunately, I see too many startups in these markets reaching out to a smallish pipeline of potential customers (out of necessity, due to limited bandwidth and marketing resources), and then working really hard to close on a high proportion of those opportunities. Others take the opposite approach and just spend way too much on marketing, but without ever really engaging with potential customers until they're already 'sold.' Several of the earlier posts in this Lessons series have dealt with this indirectly, by talking about the right role of marketing and PR, or the missing channels for a lot of these solutions. There are some tactics there for addressing the problem a bit. But basically, when you're dealing with a fragmented and distracted customer base, identifying a very few opportunities and then wrestling them to the ground will just never scale. And you can waste a lot of venture capital on marketing without knowing for sure that the customers are receptive and ready. The hoped-for 'inflection point' where you get enough customer momentum that the ball starts rolling downhill by itself is a lot further along than the startups and their investors anticipate when you're dealing with the double fragmentation problem.

So how do you deal with fragmentation? Aggregation.

We've seen how this works in the solar sector. As today's announced research from GTM and SEIA illustrates, the market for solar installations in the U.S. has been growing by leaps and bounds, including within the very same set of residential, commercial and industrial building owners referred to above. And arguably, solar on the roof has a worse economic value proposition than efficiency improvements in the building. So how is this growing so quickly?

Different companies have taken different approaches, but they're all about aggregating and effectively engaging the scattered demand. Perhaps only 10% of homeowners want solar on their roof (and at this point, that looks to be a low guess), but if you can quickly reach and quickly assess and quickly convert those scattered homeowners, you can build a backlog very quickly. So in downstream solar, the metric of the day is 'cost of customer acquisition.' It should be the metric for all sorts of other cleantech sectors as well, especially energy efficiency.

How do you effectively aggregate fragmented demand, then, to lower that cost of customer acquisition?

1. Build a network of potential customers, even including those who may not be in the market to spend money right now. Figure out what will make them want to interact with you, and make it easy. Or find existing aggregation points and tap into those funnels.

2. Get their data. Get rich information about their patterns, their needs, their existing conversations and research.

3. Analyze the data so you can present them with even more valuable opportunities that they may or may not have known about but can trust. Do their homework for them, and help them succeed with what they acknowledge is something they want to do but have trouble prioritizing.

This may sound like motherhood and apple pie, but understand that for most of the past decade the theory most cleantech entrepreneurs and investors seemed to follow was that a great technical/product innovation would drive customers to rapidly purchase the solution. You still hear echoes of this when very smart guys like Vinod and Bill Gates talk about the need to find radical innovation with ten-fold performance improvements as the be-all-end-all of cleantech entrepreneurship. But even if you can find and develop such solutions, I would argue that we've learned that it's still tough to scale up revenues in the real marketplace, without also tackling these other challenges. The fact that such basic lessons about entrepreneurship are still relatively untapped in the cleantech sector are what give me hope that we're on the cusp of a powerful next surge in our market. Because we know it can be done, and how to do it.

You will likely read the above three points and think they sound very applicable to internet-based business opportunities. They do. But not necessarily so. One of the reasons our portfolio company Next Step Living has been growing so quickly recently is that the firm went through this exercise but started with a physical touchpoint with customers. The firm partnered with towns and utilities to be able to visit thousands of homes per year as a trusted energy advisor. Now that Next Step Living has that customer network in hand, the data-driven side of its business is yielding exciting results, but it didn't start with an internet-based business plan.

On the other hand, (and as proof that we're at least attempting to walk the talk), see our latest investment, Noesis Energy. It was our first "cleanweb" investment at Black Coral. And that firm is doing exactly what's being proposed above -- as this well-done write-up by Katie Tweed illustrates: they're giving away some really cool value to building owners and managers for free, and in easy-to-use ways. We got to see how, even in a quiet beta mode, it was a no-brainer for building owners and managers to sign up for a value proposition like that. And as you can tell from the above thesis, we have a lot of big plans for what can be done with that network. I'm fascinated by data-driven cleantech plays, by opportunities to reinvent channels in these markets, and by great teams. With Noesis, we think we've found all three.

I'm using these examples from our own portfolio as illustrations, because I like these companies and their teams, so if I'm going to brag about someone to prove my point, then hey, why not. But I think cleantech investors out there will find it a common refrain in many of the other fast-growing companies in the sector, especially among those going after distributed customers (i.e., not utilities or chemicals giants).

Whether you're a hardware innovator or a cleanweb entrepreneur, figure out how to aggregate fragmented potential customers, and figure out how to get in an ongoing conversation with them. The revenue growth opportunities will follow from that -- not the other way around.

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Airlie Conference Center’s Pavilion Awarded LEED Gold Certification

Submitted by jason on Tue, 09/11/2012 - 00:19

WARRENTON, VA.—Airlie Conference Center has received a Leadership in Energy and Environmental Design (LEED) Gold certification for its Pavilion. This significant milestone emphasizes a 50-plus year commitment to environmental initiatives that is central throughout all of Airlie’s operations. LEED certification is an internationally recognized mark of excellence developed by the U.S. Green Building Council. It provides independent, third-party verification that a building has been designed and built using strategies in order to achieve high performance in key areas of human and environmental health. Such areas include sustainable site development, water conservation, energy efficiency, materials selection and indoor environmental air quality. The Airlie Pavilion’s extensive renovations in 2011 followed stringent LEED guidelines for green building design. The 2,800 square foot octagonal building features 360-degree views through retractable glass doors, allowing for an open-air feel year round. This versatile structure can be used for meetings and special events, and is the largest of the 17 conference areas on the Airlie campus. Airlie’s leadership position in environmental initiatives is a result of the company’s extensive efforts.

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Smart Building Managed Services Spending to Surpass $1 Billion by 2020

Submitted by jason on Mon, 09/10/2012 - 23:21

BOULDER, COLO.—As part of the effort to cut costs in the global recession, many commercial building owners and managers have installed building energy management systems (BEMS) to reduce energy use and operating expenses. While these new systems can provide significant efficiency gains, their sophistication can be beyond the capabilities and resource levels of a building’s operating or maintenance staff.

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Smart Building Managed Services Growing in Demand

Submitted by jason on Mon, 09/10/2012 - 23:21

BOULDER, COLO.—As part of the effort to cut costs in the global recession, many commercial building owners and managers have installed building energy management systems (BEMS) to reduce energy use and operating expenses. While these new systems can provide significant efficiency gains, their sophistication can be beyond the capabilities and resource levels of a building’s operating or maintenance staff.

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Shell Already Forced to Stop Arctic Drilling Operation

Submitted by jason on Mon, 09/10/2012 - 22:52


Shell commenced drilling an exploratory well in the Arctic, but the fun was over nearly as soon as it began.

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