In Haiti, solar panels key part of plan to bring electric power to remote areas

In a small home in Chansolme, a municipality in northwestern Haiti, Frantzy Monfilston’s three children are finishing their homework before they head to bed.

Monfilston, a primary-school teacher at École Mixte Jérusalem d’Andreau, says that his home had no electricity for years, so his children were forced to finish their homework before sunset.

Many in Chansolme and other remote, rural areas in Haiti have limited or no electricity, Monfilston says. Students are only one segment of those hard-hit by the lack of electricity; residents struggle to complete daily chores, start and run businesses, and access information during natural disasters.

But some remote communities in the country will soon have a reliable electrical supply.

Frantzy Monfilston, a teacher who lives with his family of four in Chansolme, helps his children finish their homework. Before Monfilston became a beneficiary of “Ma Maison Eclairée” in May 2017, he says, his home had no electricity.

“Ma Maison Eclairée,” or Electricity in My Home, a government initiative introduced in May 2017, is bringing electricity to an estimated 10,000 families in Haiti. “I can safely say that the electrification program will result in remote-area dwellers feeling less left out,” says Monfilston, whose family is one of 850 living in Chansolme who have benefited from the initiative, according to government officials.

Cost and infrastructure challenges have long prevented Haitian people from getting regular access to electricity, hindering key national developments in health, education and the economy. Officials and beneficiaries say the initiative is improving safety, communications and the quality of life in remote communities across the country.

Globally, more than 1.1 billion people have no access to electricity. In Haiti, only 25 percent of the population has access to electricity, according to a 2014 report from the Worldwatch Institute, an independent research organization. Many rely on nonrenewable sources of energy, including charcoal, wood fuel and traditional lamps.

The government’s goal of bringing renewable sources of energy to remote communities includes the use of solar panels, says Evenson Calixte, government special adviser on energy and director general of Autorité Nationale de Régulation du Secteur de l’Énergie, the nation’s energy-sector regulatory agency.

Les Irois, a municipality in western Haiti with an estimated 23,374 residents, was one of the first communities to receive electricity through the government initiative. A total of 380 solar panels, 36 wind turbines and a standby generator have been installed in the municipality, Calixte says.

Ma Maison Eclairée also supplies inverters equipped with solar-panel-powered bulbs, which can charge phones and which double as radio receivers, to people living in communities without electricity, Calixte says.

The device is rechargeable but can be used for up to three days without recharging. The device, when used as a radio receiver, will allow families to access information instantly, instead of having to travel long distances to urban centers to charge their phones in order to contact relatives and friends in emergencies.

During the 2010 earthquake, the most devastating in the country’s history, Haitians without electricity were among those most affected, Calixte says.

The initiative, which costs 52.6 million Haitian gourdes ($820,000), requires beneficiaries to pay 125 gourdes ($1.94) each month over a two-year period to help cover the expense, Calixte says.

For some, this is a cheaper way to power homes. Before receiving the solar-powered device, residents would pay up to 15 gourdes (23 cents) to buy 6 ounces of gas to use in traditional lamps.

Though beneficiaries are required to pay, the devices are sustainable and free to maintain.

“In case any equipment breaks down, there’s always a technician ready to provide a repair solution that works free of charge, and people don’t have to pay a single penny for the service,” Calixte says.

To become a beneficiary, families in the communities where Ma Maison Eclairée is being implemented must register with their local government. Currently, 3,000 families either have received the solar-powered device or have access to electricity through the installment of solar panels, wind turbines and the standby generator in Les Irois, Calixte says.

For Rasita Mesi, electricity in Chansolme has improved the way her children are learning. The mother of three says her household has been a beneficiary of Ma Maison Eclairée since November. Before that, her three sons were forced to do their homework with a wick-fed lamp in the evenings.

But other remote communities across the country remain without electricity.

St Anne Estil, who resides in Bassin Bleu, a municipality in northwestern Haiti, says she and her neighbors have lived without electricity for decades.

But bringing electricity to the country’s remote communities takes time, Calixte says. Ma Maison Eclairée is in its first year of what will be years’ worth of improving Haiti’s electrical networks, he says.

Kennedy Energy Park wind turbines on display at Port of Townsville

Australia’s largest on-shore wind turbine blades were unveiled at the Port of Townsville last week with bus tours explaining the technical construction and operation of the wind turbines.

The Kennedy Energy Park-Port Open Day showcased 36 monster-sized blades which arrived at the port in early June and are bound for the $160 million renewable energy project in Hughenden.

Head of Vestas Australia and New Zealand (which supplied the turbines), Peter Cowling, said the turbine blades demonstrated the most recent technology, which allows for them to transfer more of the wind’s energy into electricity and supporting better performance of the wind turbine.

CEO of Kennedy Energy Park co-owner Windlab, Roger Price, said the Park was the world’s first on-grid utility-scale hybrid project integrating wind, solar and storage, with stage one generating 43 megawatts of wind, 15 megawatts of solar and four megawatts of battery storage once completed.

“This project will demonstrate how successfully wind energy and solar can be combined to show how much of Queensland future energy needs can be met with renewable energy in a cost effective and reliable way,” Mr Price said.

President of engineering, procurement and construction services provider Quanta Solar, Charles Wright, said this was a footprint for future projects in the renewable energy field especially as the Federal Government wanted each state to supply at least 20% renewable energy by 2020.

“Preparations on site are well underway with 9 of the 12 foundations for the wind turbine generators completed,” Mr Wright said.

“The Solar and Battery Farm is progressing and our workforce will hit peak in July.”

The Kennedy Energy Park commercial operation is scheduled to begin in the fourth quarter of 2018, when Vestas’ 15-year service agreement kicks in.

Wind turbines continue to grow in size

The global wind industry has been witnessing an increase in average turbine size over the years. The industry, for the first time, crossed the average turbine size mark of 2.5 megawatts (MW) at the end of 2017. With the growth in offshore wind installations and technological advancement, the average turbine size increased from 1.77MW in 2010 to 2.70MW in 2017.

Europe is pushing the average turbine size to move northward with its focus on offshore wind installations and repowering of older turbines in countries like Germany, the Netherlands, and the UK. The average turbine size in the region exceeded 3MW in 2017 on account of offshore wind installations. In 2017, the region reported the addition of more than 3.6 gigawatts (GW) of new offshore wind installations. During the same year 706 offshore turbines were installed in Europe, with turbine size ranging from 2MW to 8MW. Out of 706 turbines, there was only one single turbine which had a turbine capacity of less than 2.5MW. The region also witnessed major repowering during 2017. More than 150 onshore repowered turbines aggregating 510MW were added in Europe. Enercon GmbH and Vestas Wind Systems A/S led the repowering market as they installed capacities of 203 MW and 180MW, respectively. The Zuidwester wind farm in the Netherlands was repowered with Enercon’s E-126/7,580kW in 2017. Many wind farms in Germany where the previous turbines were in the sub-MW segment were repowered with turbines having more than 2MW turbine size.

Countries in South and Central America have also witnessed an average increase in turbine size. The region has been continuously focusing on areas with higher wind speed where turbines with higher nameplate capacity are getting installed. A country like Brazil, which reports one of the highest capacity factors in the world owing to consistent wind, has witnessed an increase in average turbine size over the past decade. The average turbine size which was installed in the country in 2010 was the same as the global average, but in 2017 this increased to 2.76MW. The country has been focusing on the northeastern states for wind installations. Most of the wind farms which came online in Brazil in 2017 were in the northeastern states of Bahia, Piaui, and Rio Grande do Norte. Nordex SE and GE Renewable Energy supplied turbines with sizes of 3MW and 2.7MW, respectively, in these regions. Chile also witnessed the addition of new turbines in 2017 with turbine size greater than the average of 2.5MW. Siemens Gamesa Renewable Energy SA supplied 13 G128-5.0MW turbines in Chile for the San Pedro wind farm which came online in 2017.

The Asia-Pacific region has also witnessed a significant increase in average turbine size over the years. The average turbine size in the region at the end of 2017 was 2.39MW, a jump of 55% from the 2010 level. This was mainly driven by the focus of Chinese companies on offshore wind development. Companies like XEMC Windpower Co Ltd, CSIC (Chongqing) Haizhuang Windpower Equipment Co Ltd, and Shanghai Electric Group Co Ltd have been continuously supplying wind turbines with a turbine size of more than 4MW for projects in the East China Sea. Australia also has a higher capacity factor than the global average; as a result, the market is a target for turbines with a higher nameplate capacity. Companies like Vestas Wind Systems A/S, Siemens Gamesa Renewable Energy SA, and GE Renewable Energy have supplied turbines with capacity of more than 3MW.

In terms of growth of turbine size, the North American market has been slightly slow. The average turbine size in the region at the end of 2017 was 2.36MW, a jump of 32% from the 2010 level. In the US, the number of years required to receive approvals to build wind farms in coastal areas is more than that in the Midwestern region. As a result, coastal areas, which witness regular sea breezes, do not see turbine suppliers installing turbines in the multi-MW segment. In 2017, companies like Nordex SE, GE Renewable Energy, Vestas Wind Systems A/S, and Siemens Gamesa Renewable Energy SA supplied turbines with a nameplate capacity of more than 2.5MW in non-coastal states like Iowa, Michigan, and Oklahoma and non-coastal areas of Texas. In Mexico, Vestas Wind Systems A/S has been supplying turbines with a nameplate capacity of 3 MW and above since 2015. The region of Tamaulipas witnessed projects going online in 2017 using Vestas’ V112-3.3MW and V117-3.3MW IEC IIA turbines. Prior to 2017, the region had Vestas turbines with a nameplate capacity of 1.8MW. Canada has been slow in terms of growth in average turbine size. The country witnessed turbines with a nameplate capacity of 3 MW coming online prior to 2010. Vestas Wind Systems A/S has been supplying its V90-3.0 MW turbines prior to 2010. Since 2010, the average turbine size in the country has been witnessing growth at a compound annual growth rate (CAGR) of 3.6%.

South Africa is the major wind market in the Middle East and Africa, driven by the Renewable Energy Independent Power Producer Procurement Programme (REIPPP). Since 2011, wind installation in the country has been driven by the REIPPP. As per the program, the state-run utility Eskom Holdings will enter into a power purchase agreement with the selected independent power producer for a period of 20 years. With the benefit of a continuous flow of income, the developers aim to install turbines with higher nameplate capacity in order to utilize the wind speed prevalent at class-I sites. The country has been witnessing turbines being supplied by Vestas Wind Systems A/S and Sinovel Wind Group Co Ltd with a nameplate capacity greater than 2.5MW since 2014. The average turbine size was 1.98MW at the end of 2017, a jump of 10% over 2010. Other countries which are active in wind power development are Morocco, Egypt, Ethiopia, and Tunisia. Prior to 2010, these countries were supplied with wind turbines in the sub-MW class. Since 2011, these countries have been witnessing installations in the multi-MW class. Siemens Gamesa Renewable Energy SA has supplied its turbines in the 2.3MW series in Morocco, while GE Renewable Energy has supplied turbines in Ethiopia with a turbine rating of 1.67MW.

With the focus on offshore wind installations by countries like China and the US and the repowering of existing turbines with higher scale turbines at class-I sites in Germany, India etc., the average turbine size will continue to head northward.

Solar Is Saving Low-Income Households Money in Colorado. It Could Be a National Model.

The state’s energy assistance programs are solving two challenges at once: help people save money on electricity bills while expanding renewable energy.

Low-income households in Colorado are getting a new question during visits from energy assistance agencies: Have you considered solar panels?

It’s an innovative approach to solving two challenges at once: reducing greenhouse gas emissions as the effects of climate change appear across the state, and lowering low-income families’ electricity bills.

The results can make a big difference for residents like Joe Anderson, whose power bills have been cut by two-thirds since 13 solar panels were installed free-of-charge on his ranch-style house under one Colorado program. “I felt like I kind of got the luck of the draw,” he said.

Colorado is emerging as a national model for how to expand renewable energy to low-income homes.

The state has been pursuing low-income solar programs since 2015, and it’s on track to have 20 megawatts installed by the end of 2019 as those programs ramp up. The total is the combination of several programs that, working with utilities and charitable organizations, provide rooftop installations and community solar arrays to help customers save money.

One key to Colorado’s success is that much of the rooftop solar work is being run by county and regional weatherization offices that already provide insulation and other energy efficiency services.

Solar Was ‘The Logical Next Step’

To see Colorado’s low-income solar programs in action, one of the best examples is in Arapahoe County, where Anderson lives, just outside Denver. It’s the third most populous county in the state and often a trend-setter in providing services.

Solar was “the logical next step in increasing potential energy-cost savings for low-income consumers” and a natural addition to the Arapahoe County Weatherization Division’s work, said Steve Elliott, the division’s manager.

County employees identify which households would benefit the most from solar while doing a larger assessment of energy efficiency and other needs. Solar is an add-on for clients, on top of energy efficiency improvements. It’s used in about 15 percent of cases that are receiving services.

The Arapahoe office has installed 50 rooftop solar systems like Anderson’s in about a year of offering the service, and it projects an average annual electricity bill saving of about $550 per house, or 59 percent.

Anderson, who runs a small book publishing company and is a volunteer Christian minister, has four children and a household income of about $65,000, which fell just within the guidelines to qualify for subsidized rooftop solar.

Over the life of the solar panels, the savings are projected to exceed the costs—a requirement to be able to use government money. The rooftop systems typically cost $9,000 to $10,000. So far, only owner-occupied properties are eligible, but rental housing can apply for other programs.

“Our focus is to maximize energy savings for customers,” said Donna Garrett, administrative supervisor for the Arapahoe County Weatherization Division.

Community Solar for Low-Income Homes

Another Colorado program pays for low-income customers to get electricity from community solar projects, which are shared solar arrays that offset electricity costs for subscribing residents and businesses. Under state law, developers of the arrays must allocate 5 percent of the electricity to low-income customers.

Some projects, such as Coyote Ridge Solar Farm in Fort Collins, are built to primarily serve low-income homes. The 2 megawatt project has been described as the largest low-income community solar array in the country. It’s the result of work by the local utility, Poudre Valley Rural Electric Association, and nonprofit groups such as GRID Alternatives, which installed the system.

In all, eight community solar projects have been developed through the program, with about 400 low-income subscribers. The typical electricity bill savings are 15 percent to 50 percent.

“I’ve always thought solar would be a good thing, but I can’t afford solar out here,” said Joan Murphy, 77, of Loveland, who signed up to receive power free of charge from the Fort Collins project. She raises goats on her rural property and prides herself on being thrifty.

“I don’t know if I agree with some of the greenhouse gas people or whatever, but I do believe that [solar power] is a good use of saving energy,” she said.

Utility Partners + Weatherization Programs

A dozen states and the District of Columbia have low-income solar programs, according to the Clean Energy States Initiative, which tracks renewable energy policies.

California is the country’s leader, with some of the oldest and largest programs for low-income solar.

Colorado, however, is emerging as a model because the state’s programs can be emulated just about everywhere, said Jeffrey Cook, co-author of a recent report about Colorado’s programs from the National Renewable Energy Laboratory, itself based in Colorado.

Every state has utilities that can serve as partners, as they do in Colorado, and most state and local governments already have offices that handle low-income weatherization, he said.

How States Are Powering Low-Income Homes with Solar

In Colorado, Xcel Energy provides 53 percent of the state’s electricity sales and has a 2 percent charge on customer bills that pays for renewable energy programs. The state also receives funding from two federal programs, the Weatherization Assistance Program and the Low Income Home Energy Assistance Program.

The different funding sources work together. For instance, the community solar program is running on a $1.2 million state grant to GRID Alternatives, and participating utilities such as Xcel are required to match the grant money on a 2-1 basis.

In addition to reducing energy costs for low-income residents, these programs are helping Colorado work toward its climate goals. The state has a target to reduce greenhouse gas emissions from the power sector 25 percent by 2025, and then 35 percent by 2030.

Are Other States Ready to Follow Colorado?

In many states, low-income solar remains in the idea stage for weatherization programs.

As with most of the energy economy, low-income assistance is going through rapid changes brought on by technology, and employees are working to adjust, said Dave Rinebolt, program manager of the Department of Energy’s Weatherization Assistance Program from 2016 to 2017 and a longtime director of weatherization programs in Ohio.

“It takes a while to integrate a new program into a delivery system,” he said. “People have to get training. Delivery systems have to get built. But over time, this is a great network of professionals, and they will get good at it.”

He thinks solar is a good option for some consumers, but that basic weatherization should be done first and is almost always going to be the most cost-effective. His view is in line with practices in Colorado.

The key point, he said, is that consumers’ needs far outstrip available resources.

Along those lines, Joseph Pereira, director of low-income services for the Colorado Energy Office, has gotten plenty of practice explaining how solar is a cost-effective way to help certain customers.

He is looking most closely at how best to serve the 11 percent of residents that the state defines as “energy impoverished,” meaning they spend 10 to 15 percent of their income on energy.

There also is a fairness issue. Low-income customers pay the Xcel renewable energy fee and get a disproportionately small share of direct financial benefit from the programs it finances, Pereira said.

“From an equity standpoint, it was really time to get some of that money moving in the low-income direction,” he said.

So that’s exactly what his office did, and he thinks other states can and should follow suit.

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