Sailmaker looks to generate current

By Salem News


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Doyle Sailmakers, a local company with an international reach, may be on the verge of turning ocean currents into electric currents, Gov. Deval Patrick learned on a visit to the Salem sail loft recently.

Doyle is working with a New Hampshire company to fashion an efficient underwater turbine to harness steady, underwater currents for power. The design of the turbine's blades relies on Doyle's deep understanding of how sails power boats.

The potential for a sailmaker to help bolster the state's green economy and jobs was not lost on Patrick.

"What I learned today is there are some very, very intriguing new technologies being developed here," Patrick said.

Patrick, Salem Mayor Kim Driscoll and state Rep. John Keenan, D-Salem, and their respective entourages visited Doyle's headquarters in a new industrial park on Swampscott Road.

Doyle Sailmakers started in August 1982 in Marblehead at a time when there were 10 or 12 sailmakers in town, owner Robbie Doyle said. Several years ago, it moved to Salem, where it employs 35 people locally, down two or three from a few years ago.

In addition, there are 70 Doyle sail lofts around the world, and the company not only makes and services sails for local day sailors, its sails propel some of the world's largest and most expensive super yachts.

The sailmaker's motto, "Better Engineered Sails," may take on a whole new meaning if the company can create efficient underwater power turbines.

The governor and officials toured the cavernous sail loft, gingerly stepping on slick floors as workers knelt to work on sails spread around the 32,000-square-foot facility.

"I have never had so many blue blazers in my facility at once," said Doyle's wife, Janet.

While Patrick liked what he saw, he did not come bearing state help right away.

"I don't know yet what we can do, but one of the conversations we were having is what their needs are to help them get to the next stage," Patrick said.

The state has, through the Regional Greenhouse Gas Initiative, some resources the state can tap to invest in green technologies, Patrick said.

Massachusetts is one of 10 states that sell power plant emission allowances through auctions and invest the proceeds in energy-efficient and renewable energy projects, according to RGGI's website.

"Doyle grew and expanded and helped... embrace that technology because of a city investment and a state investment to actually put them here," Driscoll said. "They used to be in Marblehead, a much smaller company, a much smaller footprint. Now they are here, building sails, building airships, talking about other innovation."

Driscoll pointed out the building that houses the sail loft used to house Maynard Plastics. Several years ago, the facility was sold and carved into industrial condominiums.

"Now it's 10 different companies," many of which focus on innovation, Driscoll said. Driscoll met with Doyle a week ago, and, after she did so, she decided to take Patrick out to see what they were working on.

"You could see they are not designing it as a renewable energy product," Driscoll said. "They are designing it as an economic way to deliver electricity that happens to have a lot of renewable benefits."

So how did a sail company come to design an underwater power turbine?

Part of the reason, Doyle said, is the company takes an engineering approach to sail making. Doyle studied applied physics at Harvard University, and Doyle's son, Tyler, is the company's chief engineer.

About a year ago, Robert Houvener, president and founder of ScaleTera Renewable Energy LLC of Hollis, N.H., approached Doyle to create a new, more efficient water turbine using sail material.

The idea was to build big blades out of sail fabric that might withstand ocean currents.

"It turned out it was not cost-effective," Robbie Doyle said. But Doyle kept on working on the project.

"I loved everything I saw," Tyler said. "I had been working on wind turbines for the year or two before that." Tyler had been put off by the wind turbine's enormous cost for not a lot of power.

"The second you looked at the economics of this project, it just made so much more sense," Tyler said.

Turbines helped mills power the industrial revolution by harnessing power from swift-flowing rivers. However, traditional water turbines require high-speed currents of 8 to 10 knots and building structures that can stand up to that type of force, making them too expensive to build.

Doyle's technology requires slower but steady currents of about 3 knots. The turbines can be assembled in standard shipyards and don't rely on special, and expensive, ships and facilities.

The goal is to someday harness the currents of the Gulf Stream, the swift Atlantic Ocean currents off the East Coast or the Bosphorus Strait in Turkey.

"We had never built a propeller blade in our life," Robbie Doyle said, "but, again, it's just like a twisted sail, it's no different."

If all goes according to plan, Robbie Doyle said it could be a billion dollars-plus business in six years.

"We just have to come up with a technology, which we've done," Doyle said. "Now we just have to build it."

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Ukraine Leans on Imports to Keep the Lights On

Ukraine Electricity Imports surge to record levels as EU neighbors bolster grid stability amid Russian strikes, supporting energy security, preventing blackouts, and straining cross-border transmission capacity while Ukraine rebuilds damaged infrastructure and diversifies with renewables.

 

Key Points

Emergency EU power purchases stabilizing Ukraine’s grid after war damage.

✅ Record 19,000 MWh per day from EU interconnectors

✅ Supports grid stability and blackout prevention

✅ Cost and transmission upgrades challenge sustainability

 

Russia's ongoing war in Ukraine has extended far beyond the battlefield, with critical infrastructure becoming a target. Ukraine's once-robust energy system has sustained significant damage amid energy ceasefire violations and Russian missile and drone strikes. To cope with these disruptions and maintain power supplies for Ukrainian citizens, the country is turning to record-breaking electricity imports from neighboring European nations.

Prior to the war, Ukraine enjoyed a self-sufficient energy sector, even exporting electricity to neighboring countries. However, targeted attacks on power plants and transmission lines have crippled generation capacity. The situation is particularly dire in eastern and southern Ukraine, where ongoing fighting has caused extensive damage.

Faced with this energy crisis, Ukraine is looking to Europe for a lifeline. The country's energy ministry has announced plans to import a staggering amount of electricity – exceeding 19,000 megawatt-hours (MWh) per day – to prepare for winter and stabilize supplies. This surpasses the previous record set in March 2024 and represents a significant increase in Ukraine's reliance on external power sources.

Several European nations are stepping up to support Ukraine. Countries like Poland, Slovakia, Romania, Hungary, which maintains quiet energy ties with Russia today, and Moldova have agreed to provide emergency electricity supplies. These imports will help stabilize Ukraine's power grid and prevent widespread blackouts, especially during peak consumption hours.

The reliance on imports, however, presents its own set of challenges. Firstly, the sheer volume of electricity needed puts a strain on the capacity of neighboring grids. Upgrading and expanding transmission infrastructure will be crucial to ensure a smooth flow of electricity. Secondly, the cost of imported electricity can be higher than domestically generated power amid price hikes and instability globally, placing additional pressure on Ukraine's already strained finances.

Beyond these immediate concerns, the long-term implications of relying on external energy sources need to be considered. Ukraine's long-term goal is to rebuild its own energy infrastructure and regain energy independence. International assistance, including energy security support measures, will be crucial in this endeavor. Financial aid and technical expertise can help Ukraine repair damaged power plants, diversify its energy mix through further investment in renewables, and develop more resilient grid infrastructure.

The war in Ukraine has underscored the importance of energy security. A nation's dependence on a single source of energy, be it domestic or foreign, leaves it vulnerable to disruption, as others consider national security and fossil fuels in their own policies. For Ukraine, diversification and building a more resilient energy infrastructure are key takeaways from this crisis.

The international community also has a role to play. Supporting Ukraine's energy sector not only helps the nation weather the current crisis but also strengthens European energy security as a whole, where concerns over Europe's energy nightmare remain pronounced. A stable and independent Ukraine, less reliant on Russian energy, contributes to a more secure and prosperous Europe.

As the war in Ukraine continues, the battle for energy security rages on. While the immediate focus is on keeping the lights on through imports, the long-term goal for Ukraine is to rebuild a stronger, more resilient energy sector that can power the nation's future. The international community's support will be crucial in helping Ukraine achieve this goal.

 

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Tens of Thousands Left Without Power as 'Bomb Cyclone' Strikes B.C. Coast

British Columbia Bomb Cyclone disrupts coastal travel with severe wind gusts, heavy rainfall, widespread power outages, ferry cancellations, flooding, and landslides across Vancouver Island, straining emergency services and transport networks during the early holiday season.

 

Key Points

A rapidly intensifying storm hitting B.C.'s coast, causing damaging winds, heavy rain, power outages, and ferry delays.

✅ Wind gusts over 100 km/h and well above normal rainfall

✅ Power outages, flooded roads, and downed trees across the coast

✅ Ferry cancellations isolating communities and delaying supplies

 

A powerful storm, dubbed a "bomb cyclone," recently struck the British Columbia coast, wreaking havoc across the region. This intense weather system led to widespread disruptions, including power outages affecting tens of thousands of residents and the cancellation of ferry services, crucial for travel between coastal communities. The bomb cyclone is characterized by a rapid drop in pressure, resulting in extremely strong winds and heavy rainfall. These conditions caused significant damage, particularly along the coast and on Vancouver Island, where flooding and landslides led to fallen trees blocking roads, further complicating recovery efforts.

The storm's ferocity was especially felt in coastal areas, where wind gusts reached over 100 km/h, and rainfall totals were well above normal. The Vancouver region, already susceptible to storms during the winter months, faced dangerous conditions as power lines were downed, and transportation networks struggled to stay operational. Emergency services were stretched thin, responding to multiple weather-related incidents, including fallen trees, damaged infrastructure, and local flooding.

The ferry cancellations further isolated communities, especially those dependent on these services for essential supplies and travel. With many ferry routes out of service, residents had to rely on alternative transportation methods, which were often limited. The storm's timing, close to the start of the holiday season, also created additional challenges for those trying to make travel arrangements for family visits and other festive activities.

As cleanup efforts got underway, authorities warned that recovery would take time, particularly due to the volume of downed trees and debris. Crews worked to restore power and clear roads, while local governments urged people to stay indoors and avoid unnecessary travel, and BC Hydro's winter payment plan provided billing relief during outages. For those without power, the storm brought cold temperatures, and record electricity demand in 2021 showed how cold snaps strain the grid, making it crucial for families to find warmth and supplies.

In the aftermath of the bomb cyclone, experts highlighted the increasing frequency of such extreme weather events, driven in part by climate change and prolonged drought across the province. With the potential for more intense storms in the future, the region must be better prepared for these rapid weather shifts. Authorities are now focused on bolstering infrastructure to withstand such events, as all-time high demand has strained the grid recently, and improving early warning systems to give communities more time to prepare.

In the coming weeks, as British Columbia continues to recover, lessons learned from this storm will inform future responses to similar weather systems. For now, residents are advised to remain vigilant and prepared for any additional weather challenges, with recent blizzard and extreme cold in Alberta illustrating how conditions can deteriorate quickly.

 

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UK must start construction of large-scale storage or fail to meet net zero targets.

UK Hydrogen Storage Caverns enable long-duration, low-carbon electricity balancing, storing surplus wind and solar power as green hydrogen in salt formations to enhance grid reliability, energy security, and net zero resilience by 2035 and 2050.

 

Key Points

They are salt caverns storing green hydrogen to balance wind and solar, stabilizing a low-carbon UK grid.

✅ Stores surplus wind and solar as green hydrogen in salt caverns

✅ Enables long-duration, low-carbon grid balancing and security

✅ Complements wind and solar; reduces dependence on flexible CCS

 

The U.K. government must kick-start the construction of large-scale hydrogen storage facilities if it is to meet its pledge that all electricity will come from low-carbon electricity sources by 2035 and reach legally binding net zero targets by 2050, according to a report by the Royal Society.

The report, "Large-scale electricity storage," published Sep. 8, examines a wide variety of ways to store surplus wind and solar generated electricity—including green hydrogen, advanced compressed air energy storage (ACAES), ammonia, and heat—which will be needed when Great Britain's electricity generation is dominated by volatile wind and solar power.

It concludes that large scale electricity storage is essential to mitigate variations in wind and sunshine, particularly long-term variations in the wind, and to keep the nation's lights on. Storing most of the surplus as hydrogen, in salt caverns, would be the cheapest way of doing this.

The report, based on 37 years of weather data, finds that in 2050 up to 100 Terawatt-hours (TWh) of storage will be needed, which would have to be capable of meeting around a quarter of the U.K.'s current annual electricity demand. This would be equivalent to more than 5,000 Dinorwig pumped hydroelectric dams. Storage on this scale, which would require up to 90 clusters of 10 caverns, is not possible with batteries or pumped hydro.

Storage requirements on this scale are not currently foreseen by the government, and the U.K.'s energy transition faces supply delays. Work on constructing these caverns should begin immediately if the government is to have any chance of meeting its net zero targets, the report states.

Sir Chris Llewellyn Smith FRS, lead author of the report, said, "The need for long-term storage has been seriously underestimated. Demand for electricity is expected to double by 2050 with the electrification of heat, transport, and industrial processing, as well as increases in the use of air conditioning, economic growth, and changes in population.

"It will mainly be met by wind and solar generation. They are the cheapest forms of low-carbon electricity generation, but are volatile—wind varies on a decadal timescale, so will have to be complemented by large scale supply from energy storage or other sources."

The only other large-scale low-carbon sources are nuclear power, gas with carbon capture and storage (CCS), and bioenergy without or with CCS (BECCS). While nuclear and gas with CCS are expected to play a role, they are expensive, especially if operated flexibly.

Sir Peter Bruce, vice president of the Royal Society, said, "Ensuring our future electricity supply remains reliable and resilient will be crucial for our future prosperity and well-being. An electricity system with significant wind and solar generation is likely to offer the lowest cost electricity but it is essential to have large-scale energy stores that can be accessed quickly to ensure Great Britain's energy security and sovereignty."

Combining hydrogen with ACAES, or other forms of storage that are more efficient than hydrogen, could lower the average cost of electricity overall, and would lower the required level of wind power and solar supply.

There are currently three hydrogen storage caverns in the U.K., which have been in use since 1972, and the British Geological Survey has identified the geology for ample storage capacity in Cheshire, Wessex and East Yorkshire. Appropriate, novel business models and market structures will be needed to encourage construction of the large number of additional caverns that will be needed, the report says.

Sir Chris observes that, although nuclear, hydro and other sources are likely to play a role, Britain could in principle be powered solely by wind power and solar, supported by hydrogen, and some small-scale storage provided, for example, by batteries, that can respond rapidly and to stabilize the grid. While the cost of electricity would be higher than in the last decade, we anticipate it would be much lower than in 2022, he adds.

 

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Honda Accelerates Electric Vehicle Push with Massive Investment in Ontario

Honda Ontario EV Investment accelerates electric vehicle manufacturing in Canada, adding a battery plant, EV assembly capacity, clean energy supply chains, government subsidies, and thousands of jobs to expand North American production and innovation.

 

Key Points

The Honda Ontario EV Investment is a $18.4B plan for EV assembly and battery production, jobs, and clean growth.

✅ $18.4B for EV assembly and large-scale battery production

✅ Thousands of Ontario manufacturing jobs and supply chain growth

✅ Backed by Canadian subsidies to accelerate clean transportation

 

The automotive industry in Ontario is on the verge of a significant transformation amid an EV jobs boom across the province, as Honda announces plans to build a new electric vehicle (EV) assembly plant and a large-scale battery production facility in the province. According to several sources, Honda is prepared to invest an estimated $18.4 billion in this initiative, signalling a major commitment to accelerating the automaker's shift towards electrification.


Expanding Ontario's EV Ecosystem

This exciting new investment from Honda builds upon the growing momentum of electric vehicle development in Ontario. The province is already home to a burgeoning EV manufacturing ecosystem, with automakers like Stellantis and General Motors investing heavily in retooling existing plants for EV production, including GM's $1B Ontario EV plant in the province. Honda's new facilities will significantly expand Ontario's role in the North American electric vehicle market.


Canadian Government Supports Clean Vehicles

The Canadian government has been actively encouraging the transition to cleaner transportation by offering generous subsidies to bolster EV manufacturing and adoption, exemplified by the Ford Oakville upgrade that received $500M in support. These incentives have been instrumental in attracting major investments from automotive giants like Honda and solidifying Canada's position as a global leader in EV technology.


Thousands of New Jobs

Honda's investment is not only excellent news for the Canadian economy but also promises to create thousands of new jobs in Ontario, boosting the province's manufacturing sector. The presence of a significant EV and battery production hub will attract a skilled workforce, as seen with a Niagara Region battery plant that is bolstering the region's EV future, and likely lead to the creation of related businesses and industries that support the EV supply chain.


Details of the Plan

While the specific location of the proposed Honda plants has not yet been confirmed, sources indicate that the facilities will likely be built in Southwestern Ontario, near Ford's Oakville EV program and other established sites. Honda's existing assembly plant in Alliston will be converted to produce hybrid models as part of the company's broader plan to electrify its lineup.


Honda's Global EV Ambitions

This substantial investment in Canada aligns with Honda's global commitment to electrifying its vehicle offerings. The company has set ambitious goals to phase out traditional gasoline-powered cars and achieve net-zero carbon emissions by 2040.  Honda aims to expand EV production in North America to meet growing consumer demand and deepen Canada-U.S. collaboration in the EV industry.


The Future of Transportation

Honda's announcement signifies a turning point for the automotive landscape in Canada. This major investment reinforces the shift toward electric vehicles as an inevitable future, with EV assembly deals putting Canada in the race as well.  The move highlights Canada's dedication to fostering a sustainable, clean-energy economy while establishing a robust automotive manufacturing industry for the 21st century.

 

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California Skirts Blackouts With Heat Wave to Test Grid Again

California Heatwave Power Crisis strains CAISO as record demand triggers emergency alerts, demand response, and rolling blackout warnings. PG&E prepares outages while solar fades at peak, drought cuts hydropower, and reliability hinges on conservation.

 

Key Points

Extreme heat driving record demand in California, straining CAISO and prompting conservation to avert rolling blackouts.

✅ CAISO hit a record 52 GW peak load amid triple-digit heat

✅ Emergency alerts spurred demand response, cutting load spikes

✅ Solar drop and drought-weakened hydro worsened evening shortfall

 

California narrowly avoided blackouts for a second successive day even as blistering temperatures pushed electricity demand to a record and stretched the state’s power grid close to its limits.

The state imposed its highest level of energy emergency for several hours late Tuesday and urged consumers to turn off lights, curb air conditioners and shut off power-hungry appliances after a day of extraordinary stress on electricity infrastructure as temperatures in many regions topped 110 degrees Fahrenheit (43 Celsius).

Electricity use had reached 52 gigawatts Tuesday, easily breaking a record that stood since 2006, according to the California Independent System Operator. The state issued emergency alerts direct to cell phones in several counties asking for immediate power conservation, and grid data show that demand plunged in response. Emergency measures were finally lifted at about 9 p.m. local time.

Much of California remains under an excessive heat warning through Friday, with authorities already preparing for more severe pressure on the power system on Wednesday amid a looming supply shortage across the grid. “We aren’t out of the woods yet,” Governor Gavin Newsom said in a message posted on his office’s Twitter account. “We will see continued extreme temps this week and if we rallied today, we can do it again.”

The state’s largest power company, PG&E Corp. said earlier Tuesday that it had notified about 525,000 homes and businesses that they could lose power for up to two hours. That warning came as temperatures in downtown Sacramento hit 116 degrees Fahrenheit, topping a previous 1925 record.

Newsom earlier signed an executive order extending until Friday emergency measures to free up additional power supplies, rather than allowing them to expire as planned on Wednesday. Many state buildings were ordered to power down lights and air conditioning at 4 p.m., and he urged residents and businesses to conserve the equivalent of 3 gigawatts of power in order to stave off blackouts. 

California's Early Brush With Blackouts Bodes Ill For Days Ahead
The downtown skyline during a heatwave in Los Angeles.Photographer: Eric Thayer/Bloomberg
California faced a similar energy emergency Monday, which was alleviated in part by activating temporary gas-fired power plants operated by the California Department of Water Resources. The current heat wave, which began in the last week of August, is remarkable in both its ferocity and duration, according to officials. 

The prospect of outages underscores how grids have become vulnerable in the face of extreme weather as California transitions from fossil fuels to renewable energy, an approach it is increasingly exporting to Western states as well. California's climate policies have aggressively closed natural-gas power plants in recent years, leaving the state increasingly dependent on solar farms that go dark late in the day just as electricity demand peaks. At the same time, the state is enduring the Southwest’s worst drought in 1,200 years, sapping hydropower production.

The average 15-minute wholesale power price in Caiso surged to $1,806 a megawatt-hour at 4:45 p.m. local time, according to the grid operator’s website.

Average day-ahead prices top $300 a megawatt-hour in Southern California
  
A break from the heat will come across Southern California later this week, thanks to Tropical Storm Kay in the Pacific Ocean, according to weather officials. Kay is forecast to edge up the coastline of Mexico’s Baja California peninsula. As it moves north, the storm will pump moisture and clouds into Southern California and Arizona, taking an edge off the heat.

 

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Solar + Wind = 10% of US Electricity Generation in 1st Half of 2018

US Electricity Generation H1 2018 saw wind and solar gains but hydro declines, as natural gas led the grid mix and coal fell; renewables' share, GWh, emissions, and capacity additions shaped the power sector.

 

Key Points

It is the H1 2018 US power mix, where natural gas led, coal declined, and wind and solar grew while hydro fell.

✅ Natural gas reached 32% of generation, highest share

✅ Coal fell; renewables roughly tied nuclear at ~20%

✅ Wind and solar up; hydro output down vs 2017

 

To complement our revival of US electricity capacity reports, here’s a revival of our reports on US electricity generation.

As with the fresh new capacity report, things are not looking too bright when it comes to electricity generation. There’s still a lot of grey — in the bar charts below, in the skies near fossil fuel power plants, and in the human and planetary outlook based on how slowly we are cutting fossil fuel electricity generation.

As you can see in the charts above, wind and solar energy generation increased notably from the first half of 2017 to the first half of 2018, and the EIA expected larger summer solar and wind generation in subsequent months, reinforcing that momentum.

A large positive when it comes to the environment and human health is that coal generation dropped a great deal year over year — by even more than renewables increased, though the EIA later noted an increase in coal-fired generation in a subsequent year, complicating the trend. However, on the down side, natural gas soared as it became the #1 source of electricity generation in the United States (32% of US electricity). Furthermore, coal was still solidly in the #2 position (27% of US electricity). Renewables and nuclear were essentially in a tie at 19.8% of generation, with renewables just a tad above nuclear.

Actually, combined with an increase in nuclear power generation, natural gas electricity production increased so much that the renewable energy share of electricity generation actually dropped in the first half of 2018 versus the first half of 2017, even amid declining electricity use in some periods. It was 19.8% this year and 20% last year.

Again, solar and wind saw a significant growth in its market share, from 9% to 9.9%, but hydro brought the whole category down due to a decrease from 9% to 8%.

The visuals above are probably the best way to examine it all. The H1 2018 chart was still dominated by fossil fuels, which together accounted for approximately 60% of electricity generation, even though by 2021 non-fossil sources supplied about 40% of U.S. electricity, highlighting the longer-term shift. In H1 2017, the figure was 59.7%. Furthermore, if you switch to the “Change H1 2018 vs H1 2017 (GWh)” chart, you can watch a giant grey bar representing natural gas take over the top of the chart. It almost looks like it’s part of the border of the chart. The biggest glimmer of positivity in that chart is seeing the decline in coal at the bottom.

What will the second half of the year bring? Well, the gigantic US electricity generation market shifts slowly, even as monthly figures can swing, as January generation jumped 9.3% year over year according to the EIA, reminding us about volatility. There is so much base capacity, and power plants last so long, that it takes a special kind of magic to create a rapid transition to renewable energy. As you know from reading this quarter’s US renewable energy capacity report, only 43% of new US power capacity in the first half of the year was from renewables. The majority of it was from natural gas. Along with other portions of the calculation, that means that electricity generation from natural gas is likely to increase more than electricity generation from renewables.

Jump into the numbers below and let us know if you have any more thoughts.


 

 

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