[ad_1]

ROCHESTER — Acting Planning Board Chairman Gary Florindo said the High Street landfill is being considered as a possible site for a solar energy array installation.

He said it may become part of the town’s efforts to join the state Green Communities program, which would make Rochester eligible for grants and technical assistance to become a more energy-efficient town.

The first of the five criteria to become a Green Community would be adopting legislation to designate one acre in town as a by-right zone for solar energy installations or for the research and development of solar energy technology.

Planning Board member John DiMaggio asked whether allowing such an operation would abide by the town’s own solar zoning bylaws, especially regarding its level of visibility.

Town planner Steve Starrett responded zoning would still regulate this feature of such an installation.

In other action, the board continued its hearing on a proposed age-restricted 22-unit residential development near Plumbs Corner with a problematic storm water drainage plan until Aug. 28.

The continuance Tuesday night was accompanied by good news from Starrett that the parties involved in resolving the drainage dilemma are working together on a solution.

“They are getting together and working on it,” Starrett said in reference to the dispute over who owns the problem of a deficient existing drainage system at the site that the developer needs to fix.

The current system sends storm water directly into wetlands behind the mall. But the solution requires the Plumb Corners Mall property, which the petitioner doesn’t own, but the mall owner does not want utilized for the plan.

The hearing was continued to the new date upon the request of the petitioner and because the meeting lacked a quorum level of members.

[ad_2]

Source link

[ad_1]

The business environment in Uganda is proving to be more conducive for investors with more investments lining up for a share of the economy.

In a bid to be consistently competitive in the East African region, the Government continues to put efforts to make necessary adjustments to facilitate the growth of businesses and attraction of the same. The value of Foreign Direct Investments continues to rise in the country to affirm the economic development taking place.

Egypt is currently at the forefront of establishing stronger bilateral relations with its African partner. The transcontinental party, in partnership with the Government of Uganda, will implement a 4MW solar power project that is geared at improving the country’s renewable energy performance. Renewable energy has been touted as a reliable source of power for African nations, and a vehicle to drive economic growth. European countries have imbibed the idea as well to enjoy the benefits accrued to it.

Under the grant agreed upon by the two parties, Egypt has provided the necessary equipment and engineering services while Uganda has provided the 7.5-hectare land upon which the project will be implemented. The latter will also cater to the logistics of the project in terms of taxes and shipping cost from Mombasa, Kenya. The project will be Uganda’s third largest power station.

95{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of Uganda’s population use traditional solid fuels for domestic activities like cooking and heating. Despite the country being rich in renewable energy sources, a good proportion is still unexploited. This has limited the country’s energy production and expansion of the industrialization sector. Financial risks have been one of the barriers to major exploitation of such regions to support diverse sectors.

Less than 10{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the country’s hydropower is being exploited, which has a massive potential for electricity generation. Hydropower could not be counted on much as it is affected by climatic change. Biomass energy is the second most popular renewable resource, especially for villagers. The wind energy has a bright future in the country, which the Government could invest in to facilitate its energy supply with the help of wind turbines. Solar energy has shown promising potential which has received much attention and financial aid.

The country’s estimated renewable energy potential stands at 5,300 MW. Rural electrification will not only attract investments but have a ripple effect on major sectors as industry and agriculture. The country highly relies on agriculture as the backbone of the economy and more investment to better its performance would serve the country right. Poor infrastructure has been a barrier to the development of such areas as they would push the operation cost high.

Access to modern energy services through renewable energy development is a major concern for the energy sector in Uganda.



[ad_2]

Source link

[ad_1]

River Horse Brewing Co. in Ewing has been cited by solar lobby Solar United Neighbors as one of the best solar-powered breweries in the country, and is in the running for the No. 1 spot.

The 2018 Brews from the Sun Competition recognizes 40 breweries from across the U.S. for their use of solar power in the brewing of their beer. River Horse is the only New Jersey brewery recognized.

“What inspired the competition is that we work across the country helping people go solar. We’ve worked with a number of organizations and groups and noticed that breweries were one of the groups that have taken to solar and found it to be a benefit to their business,” said Ben Delman, communication director at Washington, D.C.-based Solar United Neighbors. “We wanted to highlight the connection between brewery and solar and build greater attention to solar in general, and we thought it would be a great op to do so.”

River Horse has used solar power to brew its beer since 2010, when it moved from its original location in Lambertville to a building in Ewing with solar power already installed.

“Reducing both our carbon footprint and energy savings really made the location too good to pass up,” reads the brewery’s website. “We have seen a nice offset in our electricity bills.”

The competition ends on Saturday. So far, River Horse has 57 of the 7,595 votes casted. The two breweries at the top of the list each have over 1,500 each. The winner takes home an award honoring their commitment to solar and a print ad promoting the brewery in quarterly magazine BeerAdvocate.

River Horse and Solar United Neighbors are holding a happy hour from 5 p.m. to 7 p.m. Friday in the brewery’s Ewing taproom. The event is free and open to the public.

River Horse was not available for comment at press time.

More From This Industry

Gabrielle Saulsbery

Gabrielle Saulsbery


Albany, N.Y. native Gabrielle Saulsbery is a staff writer for NJBIZ and the newest thing in New Jersey. You can contact her at gsaulsbery@njbiz.com.

[ad_2]

Source link

[ad_1]

ELLSWORTH — A Casco-based energy project developer proposes the creation of a 500-acre solar farm in Township 16 in eastern Hancock County.

Dave Fowler, owner of Next Phase Energy Services, said the solar farm would be located between two wind farms, Bull Hill and Hancock Wind.

Township 16 abuts the eastern side of the town of Eastbrook and the western side of the Washington County town of Deblois.

The proposed solar farm site is on forestland owned by Elliott Jordan & Sons, Fowler said.

If Fowler obtains all the necessary permitting, which includes getting a development permit from the Maine Department of Environmental Protection, he’ll try to sell the power to Emera Maine.

Emera has a 115-kilovolt line, which the solar panels would feed.

“Essentially all of the solar panels’ power will be collected into one substation and that substation will interconnect into Emera’s line,” said Fowler.

Township 16 is in Hancock County’s unorganized territories, which means any development projects are the purview of Maine’s Land Use Planning Commission.

Samantha Horn, the commission’s planning manager, said the board voted unanimously on Aug. 8 to change the zoning for the proposed project site to allow commercial use to allow the solar farm.

The land will not remain commercial should the solar farm cease operations.

“Once the solar facility is finished operating and is decommissioned, the zoning will go back to general management, or similar zoning and it will not remain as commercial,” said Horn.

The project is a few years away. Fowler said he hopes to have the DEP permit by spring. Connecting with Emera, however, could take a couple of years.

Construction costs for solar farms have dropped in recent years.

Fowler said solar is “one of the most competitive” energies today.

“The panels themselves have become more efficient and the price of the panel has dropped,” said Fowler. Some panels are made of silica.

What is a solar panel?

A panel contains solar cells, which are individual units or wafers, which convert sunlight directly into electricity, according to the U.S. Energy Information Administration.

“Solar panels are installed in arrays, or rows of panels, that—along with other hardware make up an installation,” the administration stated.

Jennifer Osborn

Jennifer Osborn

Reporter and columnist at The Ellsworth American

News Reporter Jennifer Osborn covers news and features on the Blue Hill Peninsula and Deer Isle-Stonington. She welcomes tips and story ideas. She also writes the Gone Shopping column. Email Jennifer with your suggestions at [email protected] or call 667-2576.
Jennifer Osborn

Latest posts by Jennifer Osborn (see all)

[ad_2]

Source link

[ad_1]

Illinois legislation concerning commercial solar valuation and installations on agricultural land has been signed into law by the governor.

As the Illinois solar market eagerly awaits completion of Future Energy Jobs Act procurement and program management, two pieces of legislation were enacted this summer that will help reduce uncertainty in some categories of project development. Governor Bruce Rauner signed into law Senate Bill (SB) 2591, now Public Act (PA) 100-0598 on June 29th and SB0486, now PA 100-0781 on August 10th. These acts provide parameters for property tax valuation of commercial solar systems, and addressing the impact of such systems that are sited on agricultural land.

PA 100-0598 adds solar installations to existing legislation regulating the impact of wind farms on agricultural land. This covers systems larger than 500 kW of capacity used for offsite power transactions, or systems larger than 2 MW that are used only for onsite consumption. It covers only projects not yet operational as of June 29th. It further requires an “Agricultural Impact Mitigation Agreement (AIMA)” that will enable the land to be able to be returned to agricultural use after the solar energy system’s life cycle, addressing decommissioning and abandonment issues. Besides wind farms, Illinois AIMAs are also used for fossil fuel pipelines and power transmission lines.

Recent concerns, warranted or not, of solar installations wiping out farmland wholesale, brought about this legislation. The issue of farm land loss to solar or wind farms pales compared to the loss of 13{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of Illinois’ 27 million acres of farmland to residential and commercial development since 1950, a loss of about 77,000 acres, or 120 square miles, per year. Property enrolled, not just zoned, agricultural land can receive additional benefits, but only about 100,000 acres have taken advantage of this incentive.

The more recent signing, PA 100-0781, standardizes how a solar energy system that is used for off-site power generation is valued. The legislation exempts counties larger than 3,000,000 population, which will apply to Chicago and the rest of Cook County. The law establishes solar at $218,000 per MW, or $0.218 per watt., with limits on depreciation. This figure sounds low, even after incentives, but property tax valuation is typically made at a fraction of market value. This does not affect property tax rates that localities may charge, as long as it’s based on $218,000 per MW. The localities may also, at their discretion, abate this valuation. This legislation covers the assessment years 2018 through 2033, with the billing generally coming due the following year.

[ad_2]

Source link

[ad_1]

DOVER, N.J., Aug. 15, 2018 /PRNewswire/ — Today, Casio America, Inc. is proud to announce the addition of 10 new models to its EDIFICE collection of men’s timepieces – the EQS900DB-1AV/2AV, EQS900CL-1AV, EQS600DB-1A4/1A9, EFSS500DB-1AV/1BV and EFSS510D-1AV/2AV/7AV. The new high performance models come with solar charging technology and are designed for both professional and personal lifestyles making them the ideal addition to any man’s wardrobe.

“We are excited to introduce an array of new models to Casio’s distinctive EDIFICE collection of timepieces,” said David Johnson, Vice President of Casio’s Timepiece Division. “The new additions offer solar power and a variety of enhanced features that exude ‘speed and intelligence’ like a carbon dial and sapphire crystal. They are truly a testament to Casio’s commitment to providing consumers with the boldest, and most versatile timepieces in the industry.”

All 10 models boast a Solar Chronograph that can continually store energy via a solar panel located under the inset dials. Casio’s Solar Chronograph, which consists of a solar panel system, converts light to energy and eliminates the need for battery changes. It can even be charged in low or fluorescent light. After a full charge and without further exposure to light, the timepiece has a battery life of approximately five months. Other key features include water resistance up to 100 meters, a one second stopwatch, date display, battery indicator and screw back.

In addition to their innovative functionality, Casio’s EDIFICE timepieces exude style and elegance. Casio’s new EFSS500DB and EFSS510D models are made with Sapphire crystal, a scratch resistant and resilient type of glass that provides a clear and strong watch face. The EQS900DB, EQS900CL and EQS600DB models are designed with a carbon dial which is the same carbon fiber used in Formula One™ racing.

The new EDIFICE timepieces will be available nationwide in August at select jewelry and watch retailers, as well as EDIFICE.Casio.com. For additional information on Casio’s EDIFICE collection of timepieces, please visit www.EDIFICE.Casio.com.

About EDIFICE

Casio’s EDIFICE collection reflects a distinct sense of style by providing men with features that are ideal for professional and weekend lifestyles. The collection speaks to upwardly, mobile men whose goals lie anywhere from the boardroom to the ballpark. With a variety of aristocratic, sleek styles, Casio’s EDIFICE timepieces possess features including multi-layered dials, world time, daily alarms, and more. Made with strong, comfortable band materials of resin and stainless steel, each style exudes an attractive, sophisticated look. For additional information on Casio’s EDIFICE line of timepieces, please visit www.EDIFICE.Casio.com.

About Casio America, Inc.

Casio America, Inc., Dover, N.J., is the U.S. subsidiary of Casio Computer Co., Ltd., Tokyo, Japan, one of the worlds leading manufacturers of consumer electronics and business equipment solutions. Established in 1957, Casio America, Inc. markets calculators, keyboards, mobile presentation devices, disc title and label printers, watches, cash registers and other consumer electronic products. Casio has strived to realize its corporate creed of creativity and contributionthrough the introduction of innovative and imaginative products. For more information, visit casio.com/home

SOURCE Casio America, Inc.

Related Links

http://www.casiousa.com

[ad_2]

Source link

[ad_1]

The Canadian PV panel maker Silfab Solar hopes to beat standard module output by almost a third through a partnership with Dutch materials firm DSM.

A strategic alliance between the two companies, announced this week, will see Silfab incorporating DSM’s conductive backsheet technology into modules for the North American market.

“When you combine DSM’s innovative technology and material science capabilities with Silfab’s proven designs, we are able to realize a nearly 30 percent increase in output over conventional modules,” said Paolo Maccario, COO of Silfab, in a press release. 

The conductive backsheets eliminate the need for electrical connections on the front of solar modules, increasing the surface area available for energy generation and cutting losses to deliver a 3 percent boost in power output compared to panels made from standard cells.

When combined with back-contact cell technology into a finished module, the improvement in power output could be close to 30 percent more than a mainstream 280-watt product, Silfab executive adviser Geoff Atkins told GTM.

Silfab’s 60-cell modules already have a higher output than the industry standard, at 320 watts, he said. With the addition of conductive backsheets the company hopes to take output up to 350 or even 360 watts, “but we are waiting until our first generation is produced,” Atkins said.

DSM launched its conductive backsheet tech in May and has not announced any customers until now. Atkins did not confirm whether the alliance with Silfab was an exclusive one in the North American market. 

But Silfab and its U.S. customers “will be the first to enjoy the results of the cooperation,” Atkins said. “The materials will be commercially available in Q1 2019 and sold exclusively to North American Silfab partners,” he said.

He would not disclose how much Silfab plans to spend on the integration of conductive backsheets into its manufacturing process. In a press release, Silfab said it can “easily incorporate the latest designs and advancements for just-in-time deliveries.”

The company, which makes 60- and 72-cell monocrystalline PV modules, is reportedly planning two 150-megawatt production lines, one in Ontario, Canada, and one in the U.S. 

Back-contact solar cells improve PV efficiency by maximizing the workable surface of the cell, but have so far failed to catch on for lack of an efficient, cost-effective backsheet, said DSM in May.

DSM claims to have solved this challenge by creating a patterning system that is 100 times faster than before. This is a pivotal part of the manufacturing process for conductive backsheets, according to DSM.

The conductive backsheets result in zero power loss from cell to module and are compatible with metal wrap-through, interdigitated back-contact and back-contact heterojunction cells, said the company.

In June, the U.K. PV technology developer Oxford PV claimed a new efficiency record as part of moves to create a 30+ percent efficient solar cell by 2020. 

The company hit a 27.3 percent conversion efficiency with a perovskite-silicon tandem solar cell, certified by the Fraunhofer Institute for Solar Energy Systems.

And in April, GTM reported on moves to use passivated emitter and rear cell (PERC) technology to increase energy yields across North American solar plants, potentially to a level that could erase the price hike inflicted by U.S. tariffs.

According to GTM Research, PERC cell capacity rose from a few pilot lines just five years ago to more than 35 gigawatts in 2017, or nearly one-third of total global cell capacity.

Plants built with PERC cells can require up to 12 percent fewer high-efficiency modules because they are up to 12 percent more efficient. 

At the same time, balance-of-system costs for cables, racking, labor and land are also proportionally reduced because fewer modules can produce the same amount of energy.

[ad_2]

Source link

[ad_1]

1 Alaska Village Electric Cooperative, Inc. (AVEC), Anchorage, AK AVEC and Stebbins Native Corporation, through a joint venture, will install a 900-kilowatt (kW) turbine to provide wind energy to two remote communities in rural Alaska. This project will serve 328 buildings in Stebbins and St. Michael, AK, and reduce diesel fuel use by approximately 167,500 gallons each year, resulting in savings of approximately $10,117,000 over 20 years. $6,823,308 (Requested DOE Funds: $1,000,000; Proposed Cost Share: $5,823,308) 2 Bishop Paiute Tribe, Bishop, CA Under this project, at least 108 kW of new solar photovoltaics (PV) will be installed on 38 existing owner-occupied, single-family homes for low-income families. This adds to the 118 solar electric systems, totaling over 404 kW of PV, already installed on residences on the Reservation. It is estimated that the additional solar will produce at least 175,000 kilowatt-hours (kWh) per year, replacing 30{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974}-75{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the 38 homes’ total electricity use of 228,700 kWh per year, for a combined system lifetime electricity cost savings for the low-income homeowners of approximately $1 million. $539,502 (Requested DOE Funds: $269,751; Proposed Cost Share: $269,751) 3 Citizen Potawatomi Nation, Shawnee, OK Under this project, the Citizen Potawatomi Nation will install 4.0 megawatts (MW) of distributed generation powered by natural gas to reduce and stabilize energy costs, expand energy independence, and reduce the amount of coal-fired power currently consumed. The power will serve nine integral community facilities and the Nation’s senior housing complex. This project is expected to generate approximately 6,720,000 kWh per year, which represents approximately 42{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the current total energy load for the facilities served. $1,998,925 (Requested DOE Funds: $980,705; Proposed Cost Share: $1,018,220) 4 Coeur d’Alene Tribe, Plummer, ID The Coeur d’Alene Tribe will install energy efficiency measures (EEMs) and deploy a solar PV system for its senior housing complex. The current energy use for the common area averages 114,000 kWh per year, and the combination of the energy efficiency measures and solar PV deployment is expected to reduce energy use by 99,420 kWh/year—an 87{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} reduction that is expected to save $7,600 per year. $186,994 (Requested DOE Funds: $92,500; Proposed Cost Share: $94,494) 5 Ho-Chunk, Inc., Winnebago, NE Ho-Chunk, Inc., owned by the Winnebago Tribe of Nebraska, will install 320 kW of solar PV to serve nine tribal facilities, representing 221,600 square feet, and reduce electric use by approximately 6{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974}. This project will add 320 kW of installed solar capacity to the existing 400 kW, for a total of 720 kW toward the Tribe’s near-term goal of 1 MW. $728,624

(Requested DOE Funds: $364,312; Proposed Cost Share: $364,312)

6 Newtok Village Council, Newtok, AK A heat recovery system will be installed that will transport heat from the generator cooling loops in the Village’s power plant to the community buildings. The project will also implement EEMs in the construction camp washeteria and bunkhouses to reduce overall heat demand and improve heat recovery system performance. Currently, these facilities are expected to use 7,720 gallons of heating fuel and 65,495 kWh per year. It is estimated that after implementation of the heat recovery system the facilities will see a 100{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} reduction in fuel use and a total cost savings of $109,710. $1,277,884 (Requested DOE Funds: $638,942**; Proposed Cost Share: $638,942) 7 Northern Pueblos Housing Authority, Santa Fe, NM The Picuris Pueblo, in partnership with the Northern Pueblos Housing Authority, is building on the success of their completed 1-MW solar PV system with the development of a second 1-MW solar system in northern New Mexico. The Pueblo of Picuris Community Solar System Phase II project will produce approximately 2.2 million kWh annually, with gross revenue of approximately $3,163,776 over 25 years through a power purchase agreement. $2,000,000 (Requested DOE Funds: $1,000,000; Proposed Cost Share: $1,000,000) 8 Penobscot Indian Nation, Indian Island, ME To further its long-term strategic energy plan, the Penobscot Indian Nation will install EEMs and a rooftop solar PV array during the construction of its new tribal administration building in Maine. The EEMs are estimated to save approximately $46,312 per year, and the 100-kW PV system will generate an estimated savings of $233,807 over a 25-year period. $490,510 (Requested DOE Funds: $245,255; Proposed Cost Share: $245,255) 9 Pribilof Islands Aleut Community, St. Paul Island, AK This project will replace refrigeration equipment and display cases with energy efficient systems; utilize waste heat to provide heat; and lower the cost of energy and maintenance for the Aleut Community Store located on St. Paul lsland, AK. As a result of this project, the community is expected a reduction in building energy and maintenance costs of $44,385 annually. Once these and additional building EEMs are complete, the annual savings will be directed to reducing the cost of groceries, thereby lowering the cost of living for community members. $1,006,363 (Requested DOE Funds: $491,623; Proposed Cost Share: $514,740) 10 Rosebud Sioux Tribe Tribal Utilities Commission, Rosebud, SD Under this project, 250 kW of solar PV will be installed to offset approximately 45{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the electric load of the 30 housing units and one community building that comprise the Sicangu Village. This will save an estimated $38,026 annually and $951,875 over 25 years. As part of the project, tenants will receive energy efficiency education to reduce energy consumption, and local trainees will be recruited to assist in the installation providing a number of jobs. $897,000 (Requested DOE Funds: $448,500; Proposed Cost Share: $448,500) 11 San Pasqual Band of Indians, Valley Center, CA This project will install a hybrid solar-storage-liquid propane microgrid system comprised of 184 kW of PV capacity, 150 kW / 300 kWh of batteries, and 44 kW of standby generation. This microgrid will power essential loads for five separate but adjacent buildings owned and operated by the Tribe. This project is expected to substantially eliminate long-duration disruptions to essential tribal services due to utility outages, and save approximately $45,190 in electric energy costs per year, or $1.13 million over the system’s 25-year useful life. It is also expected to reduce net electric energy imports to the reservation by approximately 278,300 kWh per year by reducing consumption for the five buildings by 96{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974}. $1,396,636 (Requested DOE Funds: $698,318; Proposed Cost Share: $698,318) 12 Seminole Tribe of Florida, Hollywood, FL Under the Seminole Rural Reservation Resiliency Initiative, 563 kW of solar PV and approximately 700 kWh of battery storage, along with transfer switches and control systems, will be installed on the rural Reservations of Brighton and Big Cypress to service eight essential community facilities. The integrated system is intended to provide reliable energy during repeated grid outages and other failures caused by major storms or other events, and to lower energy costs in this high-energy-cost rural area. Specifically, the project is expected to reduce Tribal utility energy costs by approximately $4,908,291 over the 35-year life of the system, save the Tribe several thousands of dollars per year in costs for the existing diesel generators, and create jobs. $2,027,366 (Requested DOE Funds: $1,000,000; Proposed Cost Share: $1,027,366) 13 Spirit Lake Tribe, Fort Totten, ND The Spirit Lake Tribe will install a 1.5-MW wind turbine to provide low-cost electricity to tribal members, displacing approximately 62{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the electricity used by 12 tribal facilities and approximately 350 residential consumers, which will result in annual savings of approximately $500,000. $4,190,975 (Requested DOE Funds: $1,000,000; Proposed Cost Share: $3,190,975) 14 Tolowa Dee-ni’ Nation, Smith River, CA This project will install 113.4 kW of solar PV to meet electric power needs at a Tribally owned fish hatchery in northern California. Once the system is installed, 75{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974}- 80{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of electrical energy use will be replaced with solar energy, and an equivalent portion of the total $36,000 in annual electricity costs eliminated. $499,592 (Requested DOE Funds: $249,796; Proposed Cost Share: $249,796) 15 Unalakleet Native Corporation, Unalakleet, AK The Unalakleet microgrid is currently powered by a wind-diesel system comprised of four 475-kW diesel gensets and six 100-kW wind turbines. This project will upgrade and increase voltage on the transmission line, and improve the control and data acquisition system and associated data management systems in the power plant. These upgrades will increase wind penetration from 22.9{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of total electric production up to 37.4{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974}, which represents a savings of 43,933 gallons of diesel fuel each year (equivalent to an annual savings of $131,799 in fuel) and will reduce annual maintenance costs by approximately $33,800. $716,504

(Requested DOE Funds: $356,354; Proposed Cost Share: $360,150)

[ad_2]

Source link

[ad_1]

New York solar leader Quixotic Systems Inc. (QSI) has partnered with affordable housing developer Arker Companies to design and install rooftop solar energy systems for low-income communities in the New York City area.

As the solar industry continues its expansion to serve lower income communities, a New York solar leader, Quixotic Systems Inc. (QSI), has partnered with affordable housing developer Arker Companies to design and install rooftop solar energy systems for two low-income communities in the New York City area.

The first project, Bay Street Senior Housing, is a six-story building offering apartments for low-income senior citizens located along Staten Island’s Stapleton waterfront. QSI designed and installed a 35.3 kilowatt (kW) rooftop system that includes 108 high-performance SunPower® 327-watt solar panels. The system offsets 87 percent of the building’s energy use for shared-use areas that include computer facilities, a social services office and a fitness center.

Bay Street Senior Housing was partially financed with a grant from New York’s Low-Income Housing Credit Program (LIHC), which was established to promote private sector involvement in the retention and production of rental housing reserved for low-income households. The solar system helps reduce operational expenses and keep rents at an affordable level.

“QSI delivered a custom-designed, robust, aesthetically pleasing solar energy system that has performed extremely well and exactly as expected,” said Alex Aker, principal of Arker Companies. “We are always looking for subcontractors who can do high-quality work conforming to our own rigorous building schedule. QSI met that standard.”

The second solar project, currently under construction in Queens on a new affordable housing complex also developed by Arker Companies, will be a 92 kW SunPower HelixTM system — a ballasted, rooftop system with 258 SunPower 360-watt solar panels which will not penetrate the roof’s surface at all.

Both projects will benefit from rebates from NYSERDA’s NY Sun – Residential/Small Commercial program as well as the federal Investment Tax Credit for commercial solar energy systems.

Energy Poverty in New York City

New York State’s low-income population includes nearly 2.3 million households earning less than 60 percent of the Area Median Income (or $53,000 for a family of four), according to NYSERDA. Governor Cuomo’s Reforming the Energy Vision is a comprehensive strategy to build a resilient, clean and affordable energy system for all New Yorkers, with specific initiatives to address low-income citizens. Under Governor Cuomo’s leadership, solar energy in New York State has increased almost 800 percent from 2012 to 2017.

About Quixotic Systems

Quixotic Systems (QSI) has been a leader in solar energy for the New York City area since its founding in 1999. Quixotic designs, engineers and installs residential and commercial solar systems that address complex architectural and engineering challenges, especially in the urban core. A designated installer for the community-based programs, Here Comes Solar and Solarize Brooklyn CB6, Quixotic is certified by NYSERDA and NABCEP for both solar thermal and solar electric (PV) installations, and is an authorized Commercial SunPower dealer. Learn more at www.quixotic-systems.com.

About Arker Companies

Founded in 1949, Arker Companies has created more than 4,000 housing units and nearly 1 million square feet of commercial office space. The company’s projects include single-family housing developments, medical office buildings, high-rise office towers as well as rehabilitated affordable housing, landscaped gardens and numerous golf courses. To learn more visit www.arkercompanies.com.

Media Contact:

Nancy Edwards,
Clean Power Marketing Group
nancy@cleanpowermarketing.com

 

[ad_2]

Source link

[ad_1]

Agriculture
pollinator habitats


Published on August 14th, 2018 |
by Carolyn Fortuna





August 14th, 2018 by  


They buzz and swarm, hover and dart. In the process of gathering pollen and nectar for their hives, bees and other insects pollinate flowers, ensuring that plants reproduce and yield fruit and other products. They contribute to pollinating nearly 75{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of all human food crops worldwide, and yet humans have put tremendous stress on insect pollinator habitats with pesticides, land development, altered hydrologic patterns, and other actions. As a result, insect species have declined significantly. Ultimate loss of these insect species could have global scale impacts — wiping out crops, elevating food production costs, and compromising human nutrition.

Researchers at the US Department of Energy’s (DOE) Argonne National Laboratory, however, are investigating ways to use pollinator-friendly solar power as a way to reinvigorate pollinator habitats. By studying solar energy facilities with pollinator habitats on site, researchers hope to rehabilitate pollinator populations that play a crucial role in national and global agricultural industries, plant species, and thriving pollinator numbers.

pollinator habitat

Concerns regarding the conservation of pollinators have risen to the global scale as countries have seen severe pollinator declines and have begun developing strategies to sustain pollinator species in the face of an ever-expanding human population. Although the total land area projected to be required for solar development through 2030 is less than 0.1{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} of the contiguous US surface area, a need exists to improve the landscape sustainability of large-scale solar developments to avoid or minimize potential impacts to local agriculture and cultural, ecological, and other natural resources.

With goals to conserve habitat, maintain ecosystem function, and support multiple ongoing human land uses in the landscape, researchers in Argonne’s Environmental Science (EVS) division have found that the area around solar panels could provide an ideal location for the plants that attract pollinators. This study outlines opportunities for investigating the environmental benefits of pollinator habitats, such as water conservation, land management, and carbon dioxide reduction.

pollinator habitat

Background about Rural Energy Development and Agricultural Intensification

Utility-scale solar energy (USSE) developments (≥1 megawatt [MW]) are increasing in agricultural landscapes, specifically on former agricultural fields. Driven variously by economics, rejection of fossil fuels, global climate change actions, air and water pollution, and energy security, USSE grew at an average rate of 72{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974} per year between 2010 and 2016. By the end of 2016, USSE facilities accounted for approximately 22 GW of installed US electricity generation capacity, with an additional 13 GW of planned USSE construction. Interest in on-site vegetation management approaches to USSE farms is increasing, as it could restore ecosystem balance such as crop pollination that also maintains or even enhances agricultural production on nearby lands.

Recent emphasis has been placed on the creation and maintenance of pollinator habitats at USSE facilities. “Pollinator habitats” describes the practice of planting seed mixes of regional native plants such as milkweed and other wildflowers, within the solar infrastructure footprint after construction. Sowing could occur among solar panels or other reflective surfaces, or in off-site areas adjacent to the solar facility. Sowing has the intent to attract and support native insect pollinators by providing food sources, refuge, and nesting habitat.

Despite their ecological differences, all types of solar-pollinator habitats have the potential to improve biodiversity and ecosystem function as compared to conventional USSE vegetation management practices.

Conventional USSE management practices are intended to minimize or prohibit the growth of vegetation within the facility footprint:

  • placement of gravel
  • establishment and maintenance of turf grass
  • mowing
  • herbicide application

Such practices provide little or no habitat suitable for pollinator species, especially if these vegetation management practices occur frequently during operation of the solar facility.

Solar-pollinator habitat and related activities provide ecological benefits for pollinators and non-pollinators alike:

  • limited mowing
  • no herbicide or pesticide applications
  • planned seed sowing to attract pollinators

pollinator habitats

Reclaiming Pollinator Habitats through Cultivated Solar Farms

In response to the population decline of pollinating insects, such as wild bees and monarch butterflies, the Argonne researchers have examined the potential benefits of establishing pollinator habitats at USSE facilities to conserve pollinators and restore the ecosystem they provide. Examining over 2,800 existing and planned USSE facilities in the contiguous US, the researchers determined whether solar-sited pollinator habitat could benefit agriculture. They found over 3,500 square kilometers of agricultural land near existing and planned USSE facilities that could benefit from rehabilitation and which could help reinstate the declining pollinator population with few subsequent side effects.

For example, one team looked at 3 example crop types to measure the agricultural benefits of increased pollinator habitats. These crops – soybeans, almonds, and cranberries – depend on insect pollinators for their annual crop yields. If all existing and planned solar facilities near these crop types included pollinator habitat and increased yield by just 1{0b7da518931e2dc7f5435818fa9adcc81ac764ac1dff918ce2cdfc05099e9974}, crop values could rise $1.75 million, $4 million, and $233,000 for soybeans, almonds and cranberries, respectively.

Solar-sited pollinator habitats can help optimize the land-use efficiency of solar energy developments while not compromising solar panel efficiency. Often filled with gravel or turf grass, much of the land in a solar farm is untended. Research has shown that in many locations these grounds offer an ideal place to establish native plant species, such as prairie grass or wildflowers, which are prevalent pollinator habitats and can encourage steady insect population growth. There are economic benefits to pollinators, too — honey bee pollination alone adds more than $15 billion in value to agricultural crops each year in the US.

By increasing the ability of pollinators to pollinate adjacent agricultural fields, solar-sited pollinator habitat may boost farmers’ crop yields and create companion income revenues to neighboring agricultural farms. Rejuvenating local pollinator habitat is one way that local farmers can augment trends to lease land for solar arrays, as the practice has proven more lucrative to them at times than cash crops.

pollinator habitats

Final Thoughts

Studies in the UK support findings that solar panels enhance biodiversity and wildlife abundance — botanical diversity within solar farm landscaping is responding to favorable management practices.

Most UK sites studied point out that herbicide application to date at USSEs has been limited to spot treatment of weeds. They conclude that a reduction in the use of broad-spectrum herbicides will lead to greater diversity of broadleaved plants. High soil fertility of arable farmland favors a few dominant species of plants, but, as soil fertility reduces in the absence of fertilizer, diversity of both grasses and broad leaved plants is able to and is anticipated to increase. Where suitable USSE management exists, botanical diversity increases over time, with plants emerging from seed banks as well as airborne or animal-carried seed.

The symbiosis of solar farms and pollinator habitats may widen appreciation among community members and local governments for the pollinators’ role in agricultural production. It may persuade solar developers to rethink the landscape design around their installations.

Many US states are catching up to their European counterparts and acknowledging the need to address pollinator population declines through legislation. Solar facilities are beginning to respond by sowing in pollinator-friendly areas. Illinois recently passed a “Pollinator-Friendly Solar Energy Bill” in May, 2018. Other states like Maryland and Minnesota have made part of their legislative agendas to transition to USSEs that incorporate landscape compatible environs.

Photos on Foter.com and  solartradeassociation on Trend Hype / CC BY-SA and USDAgov on TrendHype / CC BY-ND and by oatsy40 on Trend hype / CC BY


Support CleanTechnica’s work by becoming a Member, Supporter, or Ambassador.

Or you can buy a cool t-shirt, cup, baby outfit, bag, or hoodie or make a one-time donation on PayPal.





Tags: , , , ,





About the Author

Carolyn Fortuna, Ph.D. is a writer, researcher, and educator with a lifelong dedication to ecojustice. She’s won awards from the Anti-Defamation League, The International Literacy Association, and The Leavy Foundation. She’s molds scholarship into digital media literacy and learning to spread the word about sustainability issues. Please follow me on Twitter and Facebook and Google+











[ad_2]

Source link