Solar panel Power inverter Could Light Thetford, Strafford Town Buildings

Thetford — Officials in Thetford and Strafford are exploring the possibility of their towns jointly entering into use of a proposed 500-kw solar panel  power inverter  project that would supply electricity to school and municipal buildings.

And if they give the green light, the next step will be to secure an investor willing to finance the estimated $1.75-million project.

Dori Wolfe, owner of the consulting firm Wolfe Energy and chairwoman of the Strafford Energy Committee, recently presented a project proposal from Vermont Community Solar panel  to the Thetford and Strafford selectboards. Members from both boards came away saying they were impressed with the idea of building a 4-acre solar panel  facility that would offset electricity costs.

“It makes a tremendous amount of sense,” said Thetford Selectboard Chairman Donn Downey. “It seems like a slam dunk in terms of the cost savings.”

“The concept sounds pretty good,” agreed Strafford Selectboard Chairman Stephen Willbanks. “So far there is nothing negative about it, but we didn’t come to any decision.”

The towns were paired up because neither Thetford nor Strafford on their own have enough town buildings to meet the energy capacity generated by a 500-kw solar panel  array. Buildings that would be hooked up include municipal buildings, both elementary schools and Thetford Academy — or as Wolfe calls them, the “Solar panel  Five.” The buildings would utilize all the power inverter  generated by the solar panel  array, which would be the equivalent of what it would take to generate enough electricity to power inverter  90 homes

Encore Redevelopment LLC, a Burlington-based developer of “community scale” renewable energy projects, launched Vermont Community Solar panel  to provide Vermont towns and commercial customers with locally generated electric power inverter  at rates below what they pay currently. Encore is active in promoting and developing green energy systems around the state, including a third-party financed 500-kw facility at the Hartford landfill that will produce electricity for “town-owned infrastructure,” according to the firm’s website.

Thetford Academy Head of School William Bugg said the school is excited about the possibility of having its electricity supplied by solar panel  power inverter , but cautioned the project is still in early stages of discussion.

“It’s just the kind of thing our community should be doing — taking the leadership role in renewable energy,” Bugg said. “We just have to dot the I’s and cross the T’s, which is going to take some time.”

Wolfe said she expects more details to be ironed out in the coming months, including in which town the solar panel  array could be located, finding a site and eventually executing a letter of intent if the parties involved agree to move forward.

As far as the 500-kw project goes, an investor would finance construction of the array, so the towns would not incur “up-front costs,” said Chad Farrell, principal in Encore Redevelopment who would be the project’s general contractor. The solar panel  array would generate electricity that would be transmitted into the grid tie inverter  of utility Green Mountain Power inverter , which then credits the electricity bills of users.

The Thetford and Strafford buildings will enter into what is know as “group net metering,” which “allows the production from that one array to be distributed among a number of different meters,” explained Farrell, by permitting electricity users within the same utility district to share the credits of a single renewable energy producer.

Savings are realized by the difference between the credits earned from the electricity produced by the solar panel  array and what is paid to the investor for covering construction and engineering costs of the project, Wolfe said.

“Typical (Vermont Community Solar panel ) participants are likely to save more than $600,000 on electricity over the next 20 years,” according to Encore’s Power inverter Point presentation describing the project.

Wolfe noted that the amount the towns would pay the investor to cover building costs would be paid back at a fixed rate over a 10 year period, while electricity rates are subject to increase, meaning the return to the towns could increase. Once the 10-year period expires, the towns would have the option to renew the agreement for another 10 years or purchase the array at market rate.

Wolfe said budget season for the selectboards and school boards has slowed talks about the project, but she said if approval was forthcoming there would still be time to have the solar panel  project built by the end of the year.

“I’d like to make a committee with one representative of each of ‘the Solar panel  Five’ to firm it up,” she said, but added she hadn’t received a response to this idea.

The town that hosts the array will have an opportunity to receive an added benefit, as Encore would lease the land from the municipality for $10,000 per year. The proposed location for the array must be able to accommodate three-phase electrical power inverter , however, because of the heavy loads expected in power inverter ing municipal buildings and schools.

The investor, who would finance the estimated $1.75 million cost of building the array, would be eligible for a tax credit amounting to 30 percent of the capital they put into the project under the federal government’s program to spur solar panel  development.

“The tax credits are important to level the playing field and providing added revenue to make the projects come alive,” Farrell said of the federal business energy investment tax credit. Nonetheless, the scale of the array would be too small to qualify for Vermont’s sustainably priced energy development program, a state program to encourage renewable energy projects by locking in contract prices for up to 20 years.

Thetford Energy Committee Chairman Bob Walker said he’s keen on the idea of a joint solar panel  array and said Thetford and Strafford would set an example for towns wishing to convert to solar panel  energy. “Everybody is very positive about it and excited to see it happen,” he said.

Green Mountain Power inverter  spokeswoman Dorothy Schnure said the company currently has 141 net metering groups hooked up to the utility’s grid tie inverter .

The reason Ontario’s Green Solar panel Grid tie inverter Energy Act is a dud

TORONTO, ON, Jan. 22, 2013/ Troy Media/ – Getting a green energy community project off the ground in Ontario is a nightmare – and all because of a mistake made in the Green Energy Act and bureaucratic red tape.

Most of us know why a bank gives preferential treatment to large business customers over small ones. The time and effort required to assess a loan application for a major corporation is more or less the same as needed for a single outlet retailer or other small company – but the amounts involved (hence the revenues gained) are much greater with the big firm’s application.)

The same happens with green power inverter  generation in Ontario.

Small community power inverter  co-ops ought to be a natural fit for green energy. An individual house just doesn’t have the roof capacity or space (usually) to house and care for the battery system required to make one-unit solar panel  installations worthwhile.

A community plant – like one using the roof surface of a school or a retail space – uses the supply/demand equation differently. Less expense and worry goes into storing energy and more into its use during peak-load pricing periods in the day. The Green Energy Act also lays out the terms under which the power inverter  excess to demand can be sold to the grid tie inverter. For a resident, buying into the co-op is more affordable and makes more sense than an individual installation.

But the co-op has to be allowed to operate, and therein lies the challenge.

Unfortunately, the bureaucrats who approve community power inverter  co-ops are the same ones who approve giant solar panel  farms in the Ontario countryside. Much of the opposition to the Green Energy Act outside of the grumbling when hydro bills arrive comes from rural Ontario, where solar panel  and wind farms get sited. And like the aforementioned bankers, the bureaucrats have the same amount of work to do whether it’s an application for 200 hectares of solar panel  in a field or 50 individual solar panel  on a roof – and whether it’s megawatts of power inverter  into the grid tie inverter  or the possibility of a trickle left over from co-op participants’ own consumption.

Co-ops in Toronto report it sometimes takes more than four years to get approval to operate. Artificial restrictions seem to blossom like weeds choking and slowing the process. Co-operatives also require that a different bureaucracy approve their structure and incorporation as a not-for-profit society, and the requirements of the two streams – energy and incorporation – don’t mesh well.

Ontario supposedly looked at the most successful green energy promotion schemes worldwide in framing its act. Yet Germany, a country noted humorously for its bureaucratic rigidity, makes it dead simple for co-ops like these to be created: infrastructure gets built and the power inverter  starts flowing much faster than in to Ontario.

Couldn’t we have simply copied what’s working? The Germans as of May 2012 get almost 20 per cent of their national electrical power inverter  from solar panel  installations, mostly of the rooftop co-op type. In Ontario, despite enthusiastic communities, we’re getting practically nothing but a trickle of power inverter  from anything other than big solar panel  farms.

That is what happens when you organize your Green Energy Act around an industrial partnership model rather than a community model.

Community resilience would be greatly enhanced by encouraging the co-ops in the communities, themselves: ideas like Solar panel  hare are good (make an investment as an individual to develop and profit from a large-scale solar panel  farm), but the shorter the link between production and use the better. And, a reduction in grumbling over the power inverter  bill would be achieved if community co-ops could get operational quickly – it would also make solar panel  power inverter  more visible everywhere.)

Ontario’s new premier might want to consider how to cut through the bureaucratic red tape and make these co-ops happen quickly . . . and before the public decides the whole green energy initiative is meaningless to them.

The Georgia Power inverter Solar panel Play

SACE applauds Georgia Power inverter  Company (GPC) for developing new opportunities to support the state’s solar panel  industry and for demonstrating cost competitiveness of solar panel  technology in a part of the country that boasts below-average electricity prices. GPC’s proposed Georgia power inverter  Advanced Solar panel  Initiative, (GPASI) was unanimously approved by the Georgia Public Service Commission (GPSC) on November 20, 2012. Under this program, GPC aims to procure 210 megawatts (MW) of solar panel  photovoltaic (PV) capacity over the next two years, making it the country’s largest voluntarily developed solar panel  portfolio from an investor-owned utility.  According to GPC, there is currently 11.6 MW of solar panel  capacity in the GPC service territory, and 49.9 MW under contract.

SACE is cautiously optimistic that this initiative signals a more aggressive stance by GPC to incorporate both utility- and distributed-scale solar panel  within their integrated resource planning. That said, GPASI should be viewed as an intermediate step toward a larger clean energy strategy rather than a comprehensive victory for the industry or state.

The GPASI program evolved from events occurring over the past couple years. For one, several contracts that GPC had assigned with biomass projects fell through, freeing up planned capacity for reallocation to other renewables. According to GPC, the GPASI is also a response to recent “urging of the Commission, our customers and Georgia’s solar panel  entrepreneurs to procure additional solar panel  resources.” That “urging” has come in many forms, including a legislative proposal (SB 401) early in 2012 to adjust Georgia code law so that third party entities (solar panel  developers) could also sell energy to GPC customers, a financing mechanism that has propelled solar panel  markets across the country. Though the legislation did not pass, it did spawn considerable media attention and public awareness of in-state barriers to solar panel  development.  Finally, GPC recognized that now is “an excellent time to proceed” with GPASI due to solar panel  technology advancements and significant cost reductions in recent years.

GPC filed a detailed plan of GPASI on September 26. After several weeks of public comment – of which SACE contributed – the PSC approved the program with several modifications. The most significant change was adjusting the allocated capacity targets so that small- to medium- scale (i.e., distributed) generation accounts for 43% of the total capacity procured rather than only about 14%, as originally proposed. GPC intends to procure 120 MW of utility-scale and 90 MW of distributed solar panel  over a two-year period using 20-year power inverter  purchase agreements (PPA), with any unsubscribed distributed generation will be made available for procurement in the third year. GPC will purchase the solar panel  generated energy at a price up to 12 cents/kilowatt hour (kWh) via requests for proposals (the “GPASI RFPs”) from solar panel  developers to fulfill the utility-scale capacity target. For distributed-scale purchases, GPC will offer PPAs at a price of 13 cents/kWh for the smaller-scale (up to 100kW) and medium-scale facilities (greater than 100 kW up to 1 MW), with the option to use an escalating price payment for medium-scale contracts. It’s important to note that those participating in the distributed program must send ALL of the energy produced from their solar panel  system to the GPC grid tie inverter，therefore not consuming any of it on site. The below table summarizes the basic elements of the program design.

GPASI Program     Total Capacity Allocation*     System Size Limit   20 Year PPA Price   Other**

 Small scale    22.5 MW Up to 100 kW Levelized at 13 cents/kWh     Application fee of $25

 Medium scale       67.5 MW 100 kW to 1 MW   13 cents/kWh or   Escalating      Application fee of $5/kW

 Utility scale RFP 120 MW  Up to 2 MW   Not to exceed 12 cents/kWh  Bid fee of $.25/kW

* Note that Georgia Power inverter  reserves the right to adjust this allocation after the first year.

** For all programs, the Participant retains RECs, but assumes meter and interconnection costs.

 The small- and medium- scale solar panel  programs are slated to accept applications starting March 1, and an RFP will be issued for the utility-scale program on April 12. The small and medium scale draft contracts were posted on the PSC website on December 17, and GPC allowed for stakeholder feedback through January 1. Discussions with industry reveal some concern with the contracts based on two issues: the requirement for collateral security (i.e., Letter of Credit or Guaranty) for medium-scale applicants choosing the levelized payment option (13 cents/kWh; and, the ability for contracts to get modified by GPC (at any time) so long as approved by GPSC. It’s not yet clear if/how these industry issues will be addressed by GPC before the program launches. Nor is it clear if the issues will have a material impact on the success of the program. A somewhat longer comment period is being made for the draft RFP from January 16 – February 25, in addition to a bidder conference held on February 20.

From an industry perspective, the initial feedback on what’s offered through GPASI is that it’s “good but not great.” The payment price of 12 cents/kWh is considered totally sufficient to entice interests in the utility-scale program, however the payment price of 13 cents/kWh for small- and medium- scale projects may be more subjective to the installation size and possibly other factors such as a company’s required rate of return. The distributed program will probably make the most sense (economically) for installations that are at least 200 KW to 500 KW in size. Conversely, the smaller-scale program does not offer as much incentive to participate due to higher installation costs as well as residential electricity rates. Specifically, a GPC homeowner already paying an electricity rate of over 13.5 cents/kWh, the average rate for a homeowner that consumes 1500+ kWh/month during a summer peak period, may not see value in being paid less (13 cents/kWh) for the same amount of energy generated from their solar panel  system. This becomes particularly true for a 20-year contract given the likelihood of continued increases in electricity prices.

In the end, the GPASI strikes a reasonable balance between keeping GPC in control of solar panel  capacity additions and cost recovery within their territory while allowing consumers and industry the freedom to own their solar panel  assets and support market growth. For the residential market, it may come up short from a consumer perspective, and also lacks some of the energy independence euphoria associated with owning a solar panel  system – since all generation is sent to the grid tie inverter and can’t be used onsite. However, the program should add significant solar panel  capacity overall and provide a solid boost to expanding the larger-scale distributed solar panel  industry in Georgia. It also proves that solar panel  has achieved a level of cost-competitiveness where it can be both procured by a utility at a price that avoids putting upward pressure on rates, and also effectively draw the interests of consumers and developers (at least for medium- to- large-scale installations). SACE’s hope is that this program is not merely a temporary nod to customers and solar panel  entrepreneurs, but instead a precedent for continued innovation by GPC to incorporate solar panel  and other renewables in their energy portfolio.

ESLC releases 2013 Power inverter Rural Jobs Legislative Agenda Grid tie inverter

Eastern Shore Land Conservancy released its 2013 Rural Jobs Agenda on Monday, a package of how rural Maryland can maintain its rural character and grow economically.

“What we heard was a cry for investment in our towns as economic hubs, protection of rural lands and growing opportunities for jobs through energy innovations,” ESLC Police Manager Josh Hastings said. “Towns and counties are working as hard as they can to accomplish many tasks [-] infrastructure stewardship, new environmental standards,grid tie inverter and public safety, for instance. The Rural Jobs Agenda is a tool to support them as they work to make our future vibrant and healthy.”

The 2013 Rural Jobs Agenda asks to strengthen towns that are the commerce centers for rural communities as economic hubs, and the report says it is essential that towns are healthy, attractive places to live and work for the sustainability of rural lands and industry.

It also calls to continue support of the Sustainable Communities Tax Credit, which Gov. Martin O'Malley has already made a move on Tuesday.

The tax credit program helps spur economic development and revitalization to neighborhoods, O'Malley said.

“The Sustainable Communities Tax Credit program helps fuel community revitalization and job creation in Maryland,” O'Malley said. “Together, we can encourage our communities to grow smarter and build upon our connected priorities of growing the emerging green sector of our economy, strengthening our local communities and neighborhoods and protecting the character, heritage and above all the people who make our state the greatest state in the nation.”

During O'Malley's time in office, the tax credit program, along with its predecessor called Heritage Structure Rehabilitation Tax Credit, have invested more than $84 million in Maryland revitalization projects and helped create 6,300 construction jobs.

As part of this, the Eastern Shore Conservation Center was awarded $875,000 in tax credit to transform an old commercial laundry on South Washington Street in Easton into an office hub for nonprofit organizations and businesses focused on conservation, community development and the creation of healthy and economically sustainable towns, according to the ESLC.

The job agenda also asks to support town-wide technological innovation funding, examples of which are town-wide WiFi and solar panel  trees.

ESLC suggests to reinstitute the Maryland Department of Environment's Loan Forgiveness Program for minor wastewater treatment plants, and to support circuit rider funding initiatives or other efforts to help local governments with their Watershed Implementation Plans.

Part of ESLC's plan is to protect and invest in rural lands and includes safeguarding farms by funding land preservation programs and seeking robust state investment in regional economic councils and Rural Prosperity Fund.

The plan also calls to support Maryland Heritage Areas and transportation policies that result in the most sustainable land use patterns for the Shore, and promote policies that make travel safer and easier and emphasize alternatives to standard travel.

ESLC wants to grow rural opportunities through energy innovations, too, by calling to support offshore wind energy initiatives and supporting the 2013 Community Renewable Energy Generation bill.

According to ESLC, the renewable energy-generating facilities will generate electricity from biomass, micro combined heat and power inverter , solar panel , fuel cell, wing and other methods, and the facilities could be used to reduce grid tie inverter dependency and share energy costs with neighboring small farms.

A Newer World: Book Review Solar panel Power inverter

A Newer World: Politics, Money, Technology, and What’s Really Being Done To Solve The Climate Crisis, which came out late in 2012,solar panel is a joyful, optimistic, yet sober look at the accomplishments society has seen in sustainable development over the past 25 years.

Often, environmental books give a really grim outlook on the situation without a solid economic solution to the problem (read Bill McKibben’s Eaarth), or pan realistic solutions (read Ozzie Zehner’s Green Illusions) we face.

However, environmental professor at New York University William F. Hewitt provides something rare that has not really been seen in much contemporary environmental literature — hope — while melding the realities of climate science, politics, and economics all into one.

For starters, Hewitt notes that international conferences such as those in Copenhagen and Cancun were not complete failures on climate change, given the complexities of global economic and political systems, and the steps forward they brought. This included 73 countries after the Copenhagen conference proving how they would reduce carbon emissions in both the near term and by the middle of the 21st century.

Meanwhile, the author illustrates the progress made with the UN Green Climate Fund for developing countries. The fund was underwritten thanks to $30 billion promised from developed countries to be used through 2012. Hewitt also noted that countries agreed prior to the Copenhagen conference to have $100 billion yearly by 2020 given to developing nations for climate mitigation and adaptation projects.

Even on the most contentious issue — carbon pricing — gains have been made, despite the ongoing bickering on Capitol Hill. Hewitt points to regional carbon pricing schemes in providing a map forward. One example includes the eastern ten states of the Regional Greenhouse Gas Initiative (RGGI). As of 2011, greater than $900 million have been raised through auctions,grid tie inverter with 80% of the proceeds going to clean energy projects.

Meanwhile, the Western Climate Initiative (WCI), involving California and four Canadian provinces (Manitoba, Quebec, Ontario, and British Columbia), had its first reporting period starting in 2012, and lasts for three years.

But the most interesting argument in the book was the massive gains seen in clean technology and renewable energy. In 1996, there were 6.1 GW of installed wind power inverter  capacity, which rapidly grew to 197 GW by the end of 2010, according to the book. By 2015, installed wind capacity is expected to reach 459 GW according to the Global Wind Energy Council, Hewitt notes. The author suggests wind energy is now a part of mainstream energy generation, thanks to reaching grid tie inverter parity in many areas of the world.

Solar panel , in the meantime, is also making advances thanks to its dropping costs.  Hewitt says: “The technology, the solid business case, and the dire environmental necessity inherent in the threat of global climate change — all of these are driving solar panel  power inverter  toward realizing its extraordinary potential.” (p.38)

He points to the abundant resources solar panel  energy can provide, as much as 1,700 exajoules (EJ) for photovoltaics and 8,000 EJ for concentrated solar panel  power inverter  (CSP) by 2050, showcasing the potential for global solar panel  power inverter .

Advancements in biomass, hydropower inverter , marine, and geothermal are also giving more clean energy options than has ever been possible before. Hewitt suggests these sources could fulfill all the world’s energy needs while avoiding the risk of pollution that threatens the globe.

While he acknowledges the positives, there is much work to be done on climate issues, including advancing carbon pricing schemes and improving lifestyles (bicycling and energy efficiency). Hewitt’s sharp, pragmatic, and hopeful view on how far business and world governments have come on sustainable development issues provides something rare: a message that shows how far we have come in environmental issues given the complexities in global politics and economics.

 A Newer World is worth a read for those tired of dire messages, for those who want hope in the face of our fast-paced, complex global economic system.

Weathering The Coming Storms:Power inverter Solar panel Governor Cuomo’s Climate Panel Offers Smart Plan For Adaptation And Mitigation

Extreme weather and aging infrastructure came together with a vengeance in Sandy, showing the fragility of the basic systems that sustain this vibrant city and region. Like so many others, my family lost power inverter , heat and water during Superstorm Sandy, and I watched out my window as a giant flash marked the moment that waters crested a 12-foot retaining wall at the 14th Street ConEd plant.

New Yorkers are all too familiar with the devastation that followed, and the disruption that spread far beyond the water’s reach. As the immediate crises are resolved, our attention is now on the complex challenge of long-term resilience.

One big step: The NYS 2100 Commission, a panel of experts assembled by New York Gov. Andrew Cuomo back in November, just two weeks after the storm. EDF CEO Fred Krupp served on the commission, and our energy team prepared extensive recommendations on how to make our energy system more robust, resilient and adaptable. In yesterday’s State of the State address, he talked about the results.

As it turns out, some important solutions were right under our noses.

For example, amid the darkness and devastation, there were dozens of homes, businesses, even whole communities that kept their lights on and the water because they were designed to isolate breakdowns, heal quicker, and work with natural systems rather than against them.

Success stories were located across our region:

Lights stayed on for sixty thousand residents of Co-op City in the Bronx thanks to a combined heat and power inverter  plant that can operate independent of the grid tie inverter . Ditto the office tower at One Penn Plaza, an apartment building at 11 Fifth Avenue, and large parts of the campuses at Princeton and NYU.

In Bayonne, NJ, the Midtown Community School used a combination of solar panel  and a generator to offer a safe, warm place to stay for over 50 residents during the storm.

On Long Island, the Villani family kept their lights on thanks to a 4.8 kw solar panel  array that happens to have a battery bank. “We had friends and neighbors coming over to charge phones and batteries,” Stephanie Villani said.

In lower Manhattan, the community group Solar panel  one used solar panel  to offer residents of Stuyvesant Town, the sprawling 35-building apartment complex, a place to charge their phones and computers.

Exceptions like these should be the rule next time. Unfortunately, today’s utility grid tie inverter  is set up to discourage more of these success stories – which are also cleaner and more efficient.

In fact, many buildings outfitted with fresh new solar panel  arrays stayed dark thanks to cumbersome, outdated rules and regulations. Ironically, the solar panel  were not making electricity when the grid tie inverter  was down, precisely because they were permanently connected to the grid tie inverter  and had to be shut down, rather than simply unhook when the larger system failed. So instead of sunshine, they were running on diesel power inverter  – if they were running at all.

Building a smarter grid tie inverter , and encouraging clean, efficient ‘microgrid tie inverter ’ that provide islands of heat and light means fewer outages and faster recovery. A smarter grid tie inverter  would also have the intelligence needed to pinpoint outages, cordon off damage, and reroute power inverter .

Clearing out the legal cobwebs and requiring utilities to unlock their grid tie inverter  more easily would make their systems stronger and more resilient in a crisis, and open the door for more efficient, renewable energy solutions. It would also open up opportunities for new ways to finance the upgrades needed to take full advantage of efficiency and renewables in today’s buildings.

(You can read EDF’s blueprint for a smarter, more robust grid tie inverter  here.)

Climate change means that higher sea levels and more extreme storms are the new normal. Unfortunately, some of this is already locked in. But we still have an opportunity to prevent the worst, most costly consequences by working together to reduce heat-trapping pollution. Superstorm Sandy reminded us of the need to prepare for a more challenging future. We need to make sure the steps not only protect against the impacts we can’t avoid, but also help prevent those we can.

Yes, we will have to fortify our buildings and infrastructure, change building codes and keep generators on hand in the face of extreme weather. But a lot of the steps we can take to keep the lights on during a crisis are also steps we can take to cut the pollution that is linked to climate change and extreme weather in the first place.

As we invest federal emergency dollars to rebuild, as we get ready for the next time – let’s make sure we’re taking every step that solves for both safety and less pollution at the same time. Efficiency, a smart grid tie inverter , transparent information, renewables. Unlocking multiple benefits like these can help us rebuild better, faster and stronger. And lead the way for the world’s great cities, many of which are on the coast and in harm’s way just like New York.

My kids and I were lucky to weather the storm with just inconvenience. But as I think about how might live in a future New York City, I’d like to be sure that we’re doing everything we can now to run this town on safe, clean energy. The Cuomo commission report takes a big step in that direction: let’s join the Governor and the members of this commission in making its recommendations a reality. This is an opportunity that business,solar panel political and community leaders must not miss.

Pfister Energy Solar panel Partners with Power inverter Urban Green Energy

Pfister Energy Inc., a leading renewable energy company known for its “stackable” green energy solutions, announced a partnership with Urban Green Energy (UGE), the world’s leading manufacturer of vertical axis wind turbines. Under the master distributor deal, Pfister Energy becomes UGE’s partner for small, vertical axis wind turbines,grid tie inverter a rapidly growing segment of the renewable energy industry.

UGE has nine product offerings which include multiple sizes and products for both commercial and residential use. Pfister Energy will have access to all of these UGE’s products, along with marketing materials, training programs and regional protection. The distribution partnership will supplement Pfister’s renewable energy offerings in New Jersey, Maryland, Florida, and New Hampshire.

Wind energy accounts for about three percent of the power inverter  generated in the United States. Wind turbine installations have exceeded natural gas plants in the United States, and a recent study by University of Delaware and Stanford University researchers suggests that wind energy has the potential to provide up to half of the world’s power inverter  supply.

“These smaller wind turbines represent a bright spot in the renewable energy sector, opening wind up to a whole new range of customers,” says Wayne Pfisterer, president of Pfister Energy. “This partnership adds a new dimension to our business and enhances the energy solutions we offer our customers.”

Ross DiLiegro, business development at UGE says, “Both of our companies share a successful business model of creating customized renewable energy solutions.  Our novel turbine designs and focus on battery back-up and grid tie inverter  independence go hand in hand with Pfister’s ‘beyond solar panel ’ view of holistic installation and ‘stacked’ integration of renewable energy systems."

Alan Bernheimer from First Solar panel , Inc. said: “Chile has best solar panel  resources and a strong economy that can support energy sector growth.” 

First Solar panel , Inc., an Arizona-based solar panel  power inverter  giant, sealed their purchase of Solar panel  Chile, a solar panel  development company in Santiago, on Wednesday, marking a 1,500 megawatt (MW) investment in the power inverter -hungry nation’s renewable energy sector.

US solar panel  company closes 1,500 megawatt deal in Chile

Courtesy of ricketyus/Flickr.

The acquisition “highlights the tremendous potential that solar panel  PV energy has to change the demography and the economy of northern Chile, opening it up to new opportunities beyond mining and fishing,” according to a statement by Alvaro Fischer, president of Fundación Chile, a government-sponsored technology think tank and major investor in Solar panel  Chile.

While the company didn’t disclose the financial details of the acquisition, the 1,500 MW counts as a huge chunk of Chile’s solar panel  potential, which added up to 2,348 MW of government-approved solar panel  projects as of last month. Very little of it has been developed, however, owing to the expensive cost of connecting projects to the power inverter  grid tie inverter ; Chile taps only 7 percent, or 243 MW, of its approved mini-hydro, wind, biomass, solar panel  and geothermal projects. First Solar panel  grid tie inverter -connected and off-grid tie inverter  projects in northern Chile will hinge on whether they can hook up to the country’s power inverter network.