The politics of wind power

By New York Times


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“The moment I read that paper,” the wind entrepreneur Peter Mandelstam recalled, “I knew in my gut where my next wind project would be.”

I was having lunch with Mandelstam last fall to discuss offshore wind in general and how he and his tiny company, Bluewater Wind, came to focus on Delaware as a likely place for a nascent and beleaguered offshore wind industry to establish itself. Mandelstam had been running late all morning. I knew this because I received a half-dozen messages on my cellphone from members of his staff, who relayed his oncoming approach like air-traffic controllers guiding a wayward trans-Atlantic flight into Kennedy.

This was the Bluewater touch — crisp, informative, ever-helpful, a supercharged, Eagle Scout attentiveness that was part corporate style, part calculated public-relations approach. It would pay off tremendously in his company’s barnstorming campaign of Delaware town meetings and radio appearances to capture what he had reason to believe would be the first offshore-wind project in the country’s history.

These features were, unsurprisingly, manifestations of Mandelstam himself, who arrived in a suit and tie, a wry smile, his wiry hair parted in the middle and tamped down like someone who had made a smooth transition from a Don Martin cartoon. Mandelstam, a 47-year-old native New Yorker who is capable of quoting Central European poets and oddball meteorological factoids with ease, had long committed himself — and the tiny company he formed in 1999 — to building utility-scale wind-power plants offshore, a decision that, to many wind-industry observers, seemed to fly in the face of common sense.

Offshore marine construction was wildly, painfully expensive — like standing in a cold shower and ripping up stacks of thousand-dollar bills. The very laws for permitting and siting such projects had yet to be enacted. Indeed, the recent past was littered with failed offshore wind projects. Never mind that there were so many more opportunities in the continental United States to build land-based wind farms, which cost half as much as offshore projects.

While wind-energy companies in Europe were moving offshore at great speed, neither Mandelstam nor anyone else had ever successfully built an offshore wind farm in the United States. Failed, stalled or delayed projects sounded like a catalog of coastal shipwrecks: Long Island, Padre Island, Cape Wind. Entrepreneurs, of course, need to anticipate the next market, but when it came to offshore wind, Mandelstam seemed too far ahead of the curve to ever succeed.

Then in 2005 Willett Kempton, a University of Delaware professor in the school’s College of Marine Studies, began teaching a course on offshore wind power. “In our department,” Kempton recalls, “most of my colleagues were working on some aspect of the global-warming problem.”

Coal-fired power plants, a major contributor of carbon in the atmosphere, had recently been linked in Delaware to clusters of cancer outbreaks and to high levels of mercury in the state’s fishery. One of the first things Kempton and his class did was go down the list of clean-energy options for Delaware — “It was a pretty short list,” he said. Solar power was still far too expensive to be economically sustainable. And the state had no land-based wind resource to speak of.

But a team of students, led by Amardeep Dhanju, became curious about measuring the winds off the coast to determine whether they might serve as a source of power. What he found was that Delaware’s coastal winds were capable of producing a year-round average output of over 5,200 megawatts, or four times the average electrical consumption of the entire state. “On the wholesale electricity markets,” Dhanju wrote, “this would produce just over $2 billion” in annual revenue.

It so happened that the day DhanjuÂ’s semester-long research project was discussed, Kempton had invited several wind entrepreneurs to class. Mandelstam was the only invitee to show up in person. It was then that Mandelstam had his eureka moment.

The amount of power Dhanju was describing, Mandelstam knew from Kempton, was but a small fraction of an even larger resource along what’s known as the Mid-Atlantic Bight. This coastal region running from Massachusetts to North Carolina contained up to 330,000 megawatts of average electrical capacity. This was, in other words, an amount of guaranteed, bankable power that was larger, in terms of energy equivalence, than the entire mid-Atlantic coast’s total energy demand — not just for electricity but for heating, for gasoline, for diesel and for natural gas. Indeed the wind off the mid-Atlantic represented a full third of the Department of Energy’s estimate of the total American offshore resource of 900,000 megawatts.

The Mid-Atlantic Bight was particularly attractive to Mandelstam because offshore winds blow strong and steady throughout the day, which means offshore wind is more likely than land-based wind in the Northeastern United States to generate electricity when demand is high. More important, offshore wind farms, Mandelstam explained, can be built close enough to big, power-hungry cities — or “load centers” — to avoid construction of expensive and politically unpopular transmission lines.

“That’s a chronic problem facing land-based wind in West Texas or in California,” Mandelstam said, “or in the Dakotas, or Wyoming,” where wind resources are often many hundreds of miles removed from the cities they are meant to serve. In Europe, Mandelstam said, developers are planning to build upon this inherent advantage by connecting offshore projects to one another using high-voltage direct current cables.

In America, such a system could supply the needs of local load centers and also export huge amounts of electricity, becoming part of a long-sought coastal megagrid, a robust, highly efficient, undersea transmission system capable of dispatching electricity anywhere along the East Coast, from Massachusetts to Florida.

As I listened to Mandelstam, the contours of what seemed to be a savvy and competitive business plan began to sharpen into focus. His aim was to exploit a huge, unheralded and presently untapped energy resource precisely at a time and place of colossal energy demand — demand that is increasing at roughly 2 percent every year.

Renewable Portfolio Standards and other state-driven initiatives requiring that a percentage of power (to increase annually) be generated by renewable sources, would, in effect, guarantee a growing market for developers like Mandelstam. Add to this the recent, spectacular rise in fossil-fuel energy prices, which has galvanized public attention around the need for alternative energy sources, and it seemed that Mandelstam — by dint of being first in what some were predicting could be a trillion-dollar-plus build-out, had a pretty good shot at becoming king of the Mid-Atlantic Bight.

In late 2005, however, it was safe to say that nobody outside of Kempton, a cluster of grad students and Mandelstam himself imagined offshore wind power actually coming to Delaware. Which is not to say they shouldn’t have been thinking about it. Delaware citizens had recently experienced the kind of awakening toward which most environmentalists believe we’re all headed — a collective recalibration of what it costs to keep the world up and running.

It began with the restructuring of the stateÂ’s electricity market and the subsequent removal of price caps, which had for seven years kept electricity prices artificially low.

“Everything skyrocketed,” recalls Karen McGrath, formerly of the Chamber of Commerce for the small coastal communities of Bethany-Fenwick. “Prices went up anywhere from 60 to 100 percent.”

The General Assembly responded by passing a law — House Bill 6 — that called for Delaware to generate more of its own electricity. Under the new state law, the state’s Public Service Commission solicited proposals for the construction of an electric-power plant. Wind power was not even mentioned, but, as Willett Kempton later recalled, “it wasn’t excluded, either.”

Kempton brought this fact to the attention of Mandelstam and others in August 2006, and Mandelstam and his staff flew into action. “We worked day and night from August until December,” Mandelstam said. He knew that his plans for an offshore wind farm would face fierce opposition, as had other projects, perhaps none more famously than Cape Wind in Nantucket Sound.

Conceived in 2000, when the price of oil was $25 a barrel, the Cape Wind project remains the best-known unbuilt offshore wind farm in America. A small, vocal, well-organized and politically connected minority argued that a wind farm would irrevocably spoil a pristine, treasured seascape, a sentiment perhaps most famously expressed in a New York Times editorial by Robert F. Kennedy Jr.: “I wouldn’t build a wind farm in Yosemite Park. Nor would I build one on Nantucket Sound.”

Against such pronouncements, and to the question of a sacrosanct American horizon best reserved for God’s signature, Mandelstam is sometimes prompted, in a way that seems inevitable in a story like this, to evoke the windmills in Cervantes’s “Don Quixote.”

“Quixote is a romantic and chivalrous knight who doesn’t want anything to change,” Mandelstam said. “He actually says that windmills are monsters with which he is going to do battle. That’s a delusion that he projects onto these windmills.”

To combat these perceptions, Mandelstam hired a British consultant, RPS, that specializes in computerized models to show Delaware citizens exactly how the wind farm would look after its construction. Mandelstam says he thought these would help Delaware citizens to see offshore wind turbines as Sancho Panza, Quixote’s sidekick, saw them — not romantically but practically, as a new technology benefiting humanity.

“I think it’s a very powerful literary example of a human phenomenon,” Mandelstam said. “When you see wind turbines rather than imagine them in your mind’s eye, then you perceive a new object in the landscape for what it is — rather than projecting upon it your own fear.”

It helped, of course, that BluewaterÂ’s turbines would be sited more than 12 miles out to sea, as opposed to the 5 to 7 miles for Cape Wind, so that, once constructed, the turbines would appear on the horizon no larger than half the size of a thumbnail, and then only on clear days.

“The Europeans see offshore wind turbines as sentinels,” Mandelstam told me, “protecting them from energy domination by foreign powers. When you put that against a few winter days of seeing turbines on the beach as you walk your dog, I think that’s a very easy trade-off.”

MandelstamÂ’s visual consultants showed the public what the turbines would look like when built. He hired consultants to address public concerns about the effects of wind turbines on migrating birds. He commissioned private meteorologists to verify the wind resource. And he and his team met regularly with the Delaware public to discuss the impact of the wind farm on ratepayers.

“In one 21-day period, we spent $380,000 to do a geophysical investigation of the sea floor,” Mandelstam said. “On land, the same geophysical work would cost $5,000.” Four months and $5 million later, on Dec. 22, 2006, Mandelstam and his staff submitted the Bluewater Wind Park proposal, a 3,400-page document describing a 200-turbine, 600-megawatt, $1.5 billion offshore wind farm that would serve as a new electrical power plant.

Still, Bluewater was up against two energy Goliaths. NRG, a generation company with $5.9 billion in annual gross receipts, proposed building a coal-fired power plant; Conectiv, a subsidiary of Pepco Holdings, a Washington-based electric company with annual revenues of $8.3 billion, filed to build a natural-gas power plant.

ConectivÂ’s sister company Delmarva Power immediately began to wage a negative advertising campaign. It used radio spots to try to turn people against wind energy, as did NRG, whose clean-coal plant was well represented by Mike Houghton, an NRG lobbyist and a major fund-raiser for Gov. Ruth Ann Minner. Six months before the bids were officially due, Governor Minner publicly endorsed NRGÂ’s clean-coal proposal.

And yet, despite the long odds against Bluewater, DelawareÂ’s citizens began swinging heavily in favor of the offshore wind project. They were receptive to BluewaterÂ’s director of communications, Jim Lanard, who appeared weekly on a local talk show.

“When I first invited Jim onto my show,” recalls the host, Randy Nelson, “nobody cared about wind power, but within five months, Jim would come on, and all the phone lines would light up.”

According to Nelson, the Bluewater project captured the attention of a citizenry hungry for an alternative to coal-fired plants.

“Out here, the Delaware shore is all we’ve got for an economy,” he says. “And the coal plant seemed to put the Delaware shore at risk. It’s hard to overstate just how much people hated that.”

For his part, Mandelstam waged a low-budget campaign of town meetings throughout the state, emphasizing price stability — how Bluewater’s 25-year utility contract protected ratepayers from rising fossil-fuel prices. Mandelstam and his firm reinforced wind power’s environmental benefits and brought their visual simulation images to show how slight the change would be to the Delaware seascape.

“They answered questions,” says R. Chris Clark, a Fenwick Island Council member. “They were the only ones doing town meetings.”

People also responded to the economic benefits that the Bluewater project would bring to the state — hundreds of new union jobs, roughly $100 million in direct local union construction wages and spinoff industries. As a first-mover in offshore wind, Delaware was likely to become a development hub for a big build into the mid-Atlantic. The construction of the Bluewater Wind Park, moreover, would be part of an important step in decommissioning several old coal-fired power plants, the removal of which would, by some estimates, save the state $750 million in health-care costs.

Over time, comments to the Public Service Commission were nearly 10 to 1 in favor of the wind project. A survey conducted by the University of Delaware concluded that 91 percent of the state’s residents supported wind power offshore — even if it meant paying more per month for electricity.

Soon Bluewater began picking up important endorsements.

One of the first came from Jack Markell, the state treasurer and a current gubernatorial candidate. Dozens more followed, including a judicious opinion published by the state’s Audubon Society, but perhaps none were more important — or telling of the change in public opinion — than those from the half-dozen coastal tourist towns whose “viewshed” would be slightly but more or less permanently altered.

Then in May 2007, after the longest and most exhaustive review process in its history, the Public Service Commission unanimously selected the Bluewater Wind Park as the winner of the open competition and ordered Delmarva Power, the same company that had been actively campaigning against the wind farm, to begin negotiating a contract — what’s known in the business as a long-term power purchase agreement, or P.P.A., with Bluewater. The decision seemed nothing short of miraculous.

“Two years ago,” Mandelstam told me shortly thereafter, “if I told the governor of Delaware that I was going to build a wind farm off the coast, she would have laughed in my face. Maybe it’s energy prices. Maybe it’s the Al Gore movie. But nobody’s laughing now.”

In the golden light of last October, things seemed to be going very well for Bluewater, especially after the infrastructure conglomerate Babcock & Brown announced its decision to purchase the company, signaling that a major player had squarely faced the many significant obstacles of offshore wind and placed a big bet on Bluewater in Delaware.

Just as Delaware seemed to become more continental in its outlook, a sea change of favorable public opinion was well under way on Wall Street, where wind power, at least the onshore variety, has become a new American frontier, a $9 billion market that is expected to grow to $65 billion by 2015.

Last year, onshore wind power added more than 5,200 megawatts of new electrical capacity to the grid — or nearly a third of America’s new generating capacity, surpassing all other forms of new generation except natural gas and amounting to enough electric capacity to power one and a half million homes.

While it’s true that wind is still a tiny part of the energy picture — just 1 percent of the total electricity portfolio in the United States and 3.3 percent in Europe — more than a quarter of the 20,000 megawatts of the world’s new wind capacity last year was installed in North America, where all the global wind-energy players have set up shop, lured by the low U.S. dollar and the high rate of returns.

“In America,” explains António Mexia, chief executive for Energias de Portugal, which bought the Texas wind company Horizon Energy, “you can put up a 200- or 300-megawatt wind park. You can’t do that in Europe.” Indeed, in the continental United States, resources are vast — with more than eight thousand gigawatts of potential electricity blowing overhead.

“The amount of wind energy potential in this country,” says Walt Musial, a principal engineer at the National Renewable Energy Laboratory’s National Wind Technology Center, “is bigger than the national grid itself.”

But the explosive growth in land-based wind farms owes more than a little to state and federal subsidies for the wind industry: state renewable energy credits; accelerated depreciation credits; and, perhaps most important, federal tax credits for equity investors who help wind developers finance and construct wind farms.

This last subsidy is keyed to actual electricity production, which is why it is called a production tax credit, or P.T.C.

Large wind farms simply can’t be financed without the P.T.C., which, in effect, decreases by as much as 40 percent the financing that developers need to build a project. “That’s huge,” says Bruno Mejean, managing director at Nord/LB New York, a German-based bank and an active wind-energy lender. “You cannot finance these projects without this 40 percent component. That’s what makes wind power viable commercially.”

Investors are happy with the P.T.C. because for a modest return on their money they get huge corporate tax breaks. Wind developers are happy because P.T.C.Â’s allow them to build bigger projects.

But for some, P.T.C.Â’s are a problem, not the solution. Senator Lamar Alexander of Tennessee, the third-most-powerful Republican in the Senate and perhaps the most outspoken opponent of wind energy in Congress, argues that the wind industry is disproportionately subsidized, which has made harvesting wind a lucrative opportunity for entrepreneurs like Mandelstam and the investors who finance their projects.

Alexander says he feels that wind should be given tax breaks no different from those for other forms of renewable energy, like nuclear power: “If I had the money to spend, I’d spend it on conservation and efficiency, nuclear power and on cleaning up the coal plants that already produce half of our electricity.”

Those who remain skeptical of wind energy as a viable solution to AmericaÂ’s energy question tend to focus on the problems of intermittence and variability: the wind doesnÂ’t always blow, and it seldom blows at the same speed. Therefore, turbines generate variable amounts of electricity.

All of this can be very troublesome for the grid, which requires consistency and predictability.

“There’s a third element,” says Lisa Linowes, executive director of the Industrial Wind Action Group, “and that is that wind power is unpredictable power. The wind often blows when you don’t really need the electricity — at night, or off-peak periods. What to do then?”

To date, according to Linowes, there is no effective utility-scale mechanism for storing off-peak wind power. Eric Rosenbloom, president of National Wind Watch, a Massachusetts-based group, adds that wind power’s inherent unreliability requires that backup natural-gas power plants be built alongside wind plants, and that this “increases, rather than decreases, both the overall expense of wind power and its carbon footprint.”

Within Delaware itself, opponents of Bluewater focused on the economics of the project.

One report financed by Delmarva Power argued that Bluewater would raise the average electric bill by $20 or more a month. If natural-gas prices flattened or decreased, the company could pass those savings on to its customers — but not if it were stuck in a long-term contract at the Bluewater price of 10 cents per kilowatt hour for the next 25 years.

DelmarvaÂ’s president, Gary Stockbridge, argued that cheaper land-based wind farms should be considered, even though a search for land-based wind power would, of necessity, take Delmarva into out-of-state electricity markets, in contravention of the very state law that prompted the bid for new energy generation.

Spurred by these objections, a handful of powerful state legislators — among them the State Senators Charles Copeland and Harris McDowell III — stepped in last December and managed to force a deadlock among four state agencies that were set to ratify the power purchase agreement between Bluewater and Delmarva.

In a move that surprised everyone (“There were audible gasps in the room,” recalls one witness to the proceedings), the vote was tabled. A local paper, The News Journal, called it a legislative coup d’état orchestrated beyond public scrutiny, at the 11th hour, by an “old-boys’ network,” as it was put in The News Journal, who now seemed to be airing the views of the wind park’s most vocal opponent, Delmarva Power.

All winter, the Bluewater Wind Park remained in limbo, while its chief legislative opponent, Senator Harris MacDowell III, conducted hearings that seemed, by many accounts, designed to torpedo the project.

Meanwhile, Delmarva pressed its advantage, buying radio, television and print ads and hiring its own consultants to make its case. “From a risk perspective,” Stockbridge said in a phone interview in December, “do we really want to lock in to what amounts to a period of 30 years to a technology when it’s most expensive and most risky? Offshore wind is just not ready yet.”

So how was it that, six months later, after millions of dollars spent fighting one of the most protracted political battles in Delaware history, Gary Stockbridge sat before a room filled with reporters to announce that offshore wind power in America was, in fact, ready? Delmarva, he revealed, had signed a power purchase agreement with Bluewater Wind to build a scaled-down, 200-megawatt wind farm off the coast.

When I met Mandelstam at lunch a day after Delmarva’s surprise announcement, he was beaming and wearing little wind-turbine cuff links, a present from his wife, Dawn. “The offshore wind industry grew up yesterday,” he said. “Delmarva came to understand that offshore wind was beneficial for its ratepayers, and that wind would fit onto its system.”

Though Mandelstam praised various legislators and Delmarva for coming to an agreement, he conceded that no small part of this realization was linked to the rise in energy prices. “Energy markets went significantly higher — and scarily so, particularly in the last six months,” he said. Indeed, oil has skyrocketed, and the price of Appalachian coal has more than doubled this year.

Tom Noyes, a Bluewater supporter, blogger, and Wilmington-based financial analyst, says that a year ago, “the numbers that both sides of this debate were throwing around were largely academic. Now, those numbers are visceral.”

Against this backdrop of steadily climbing energy prices, Bluewater’s offer of stable-priced electricity — an inflation-adjusted 10 cents per kilowatt hour for the next 25 years — became something that no utility, it seems, could credibly oppose. “A few decision-makers got it early on,” Mandelstam said, “some got it slightly later and Delmarva finally got it.”

For those looking for a parable of civic action in BluewaterÂ’s unlikely victory in Delaware, it is useful to remember how much the outcome seems to have hinged on one man: State Senate Majority Leader Anthony DeLuca. While never publicly opposing the Bluewater deal, DeLuca had serious concerns about how electricity rates would affect his constituency and was believed by many observers to be among the leadership that succeeded in orchestrating the December coup.

The same man was widely credited for brokering the deal between the antagonists.

“I managed to get criticized by both sides of the argument,” DeLuca said, “for asking the same question: Are you really going to build a wind farm?” He continued: “We were headed for two very large companies spending 25 years as adversaries. The net result of this is that we’re going to spend 25 years with two very large companies being partners.”

Whatever eventually persuaded DeLuca, the lesson in Delaware is clear. “It’s about the importance of leadership,” says Ryan Wiser, a staff scientist at the Lawrence Berkeley National Laboratory who has studied the barriers to renewable energy and the economics of wind power. Wiser cites Colorado as an example of a state shifting from fossil fuels to wind and other alternative sources of energy after electing a new governor, Bill Ritter, on a platform of green energy.

“In a two-year period, Colorado made a total about-face,” Wiser says. What was the difference? “The utility was the same. The economics were more or less the same. The decisive factor was the change in leadership.”

DelawareÂ’s project, it turns out, joins more than a dozen offshore wind projects in the United States, the largest among them aimed toward the Mid-Atlantic Bight. A report released by the National Renewable Energy Laboratory suggests that the technological challenges of wind power will not, in fact, prevent it from becoming an important part of the nationÂ’s energy supply.

“Wind power,” says Walt Musial of the N.R.E.L., “is not a niche player. That’s something that the American public may not fully be aware of.”

According to many academics and industry researchers, the grid is, in fact, far more adaptable than wind-power opponents suppose. In Texas and California (states with the largest amount of installed wind capacity), utilities are working to enable the grid to adapt to variable and intermittent loads. In New York, it seems that wind energy could provide the state with 20 percent of its energy capacity without causing trouble to the grid.

“You can’t say that because wind power is intermittent it can never be used,” says Revis James, director of the Energy Technology Assessment Center at the Electric Power Research Institute, a nonprofit agency whose funds are provided almost entirely by electric utilities. Musial agrees: “Intermittency and variability are not going to prevent us from going into wind energy.”

He points to countries like Denmark, which generates 20 percent of its electrical supply from wind. “And they haven’t done anything different to their grid structure,” he adds.

Nonetheless, many hurdles remain. Federal regulations governing the construction of offshore wind farms, for instance, havenÂ’t even been written. In the absence of a coherent federal energy policy, moreover, the states have begun to shape AmericaÂ’s energy future. The result is a hodgepodge: 50 different states with different energy resources and utilities with varying degrees of receptivity to new forms of power generation.

“What we need,” says Lester Brown, founder and president of the Earth Policy Institute, “is the grid equivalent of the Eisenhower Interstate Highway System.”

Wind energy, according to Brown, would be the centerpiece of such a program because of its ability to scale up fast. T. Boone Pickens, the oil-and-gas billionaire, has just introduced his own program, which features a major deployment of wind power at the national level.

According to the D.O.E., the net incremental cost of such a project would be $43 billion, enough to bring wind energy to supply 20 percent of the nationÂ’s electricity by 2030, bringing about a total economic benefit of more than $440 billion.

In the end, the back and forth between wind-energy supporters and opponents is ultimately about the role the federal government should play in shaping the energy market.

“You and I are subsidizing wind energy,” the banker Bruno Mejean reminded me with a smile when I spoke to him last year. “How you feel about that depends upon how you frame the argument. If it’s about energy security, then we should do as many wind farms as we can. But by paying the prices for the energy and by providing the tax breaks, big corporations like Florida Power and Light, General Electric and others are reducing their taxes at our expense. It’s a political hot potato.”

Is it right for Congress to single out an industry like wind power and favor it with tax credits? Mandelstam argues that when it comes to energy, free markets are a mirage.

“Let’s be honest,” he says. “The government makes policy decisions about technologies and industries all the time. The P.T.C. helps finance wind-energy projects that actually get built and that actually produce energy. It leverages private dollars and private initiative, and at the end of the day is a tiny subsidy.”

He notes that most of the world’s oil supply is owned by national governments: “No serious economist or public policy analyst would suggest that this industry, by some reckoning the largest on the planet, operates as a free market. Within the United States, the regulations and the laws both for fossil fuel and for the electricity market are a web of sometimes contradictory regulations and subsidies. It’s a fiction that there’s a free market with energy.”

But if energy markets arenÂ’t free, then who is at the helm?

It may seem strange for an entrepreneur to call for more government regulation, but when it comes to energy, that is what Mandelstam is doing.

“As a student of history, you go back to a guy named Thomas Edison, and his first power plant, and the thing one has to point out is that the government and regulators have been integrally enmeshed in the energy business ever since it began on Pearl Street in 1882.” He points to Europe as an exemplar: “We were the world leader in wind. Europe overtook us quite a while ago and continues to beat us all the time because they got the public policy right.”

Wise regulation, according to Mandelstam, and a thoughtful debate about energy policy is the best way to correct that.

“Let’s line up all the subsidies of coal and nuclear power and oil and natural gas and wind — and let’s have a debate,” Mandelstam urges. “That hasn’t happened in the last eight years, and now, frankly, we’re paying the price for it.”

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Calgary's electricity use soars in frigid February, Enmax says

Calgary Winter Energy Usage Surge highlights soaring electricity demand, added megawatt-hours, and grid reliability challenges driven by extreme cold, heating loads, and climate change, with summer air conditioning also shifting seasonal peaks.

 

Key Points

A spike in Calgary's power use from extreme cold, adding 22k MWh and testing reliability as heating demand rises.

✅ +22,000 MWh vs Feb 2018 amid fourth-coldest February

✅ Heating loads spike; summer A/C now drives peak demand

✅ Grid reliability monitored; more solar and green resources ahead

 

February was so cold in Calgary that the city used enough extra energy to power 3,400 homes for a whole year, echoing record-breaking demand in B.C. in 2021 during severe cold.

Enmax Power Corporation, the primary electricity utility in the city, says the city 's energy consumption was up 22,000 megawatt hours last month compared with Februray 2018.

"We've seen through this cold period our system has held up very well. It's been very reliable," Enmax vice-president Andre van Dijk told the Calgary Eyeopener on Friday. "You know, in the absence of a windstorm combined with cold temperatures and that sort of thing, the system has actually held up pretty well."

The past month was the fourth coldest in Calgary's history, and similar conditions have pushed all-time high demand in B.C. in recent years across the West. The average temperature for last month was –18.1 C. The long-term average for February is –5.4 C.

 

Watching use, predicting issues

The electricity company monitors demand and load on a daily basis, always trying to predict issues before they happen, van Dijk said, and utilities have introduced winter payment plans to help customers manage bills during prolonged cold.

One of the issues they're watching is climate change, and how extreme temperatures and weather affect both the grid's reliability, as seen when Quebec shattered consumption records during cold snaps, and the public's energy use.

The colder it gets, the higher you turn up the heat. The hotter it is, the more you use air conditioning.

He also noted that using fuels then contributes to climate change, creating a cycle.

​"We are seeing variations in temperature and we've seen large weather events across the continent, across the world, in fact, that impact electrical systems, whether that's flooding, as we've experienced here, or high winds, tornadoes," van Dijk said.

"Climate change and changing weather patterns have definitely had had an impact on us as an electrical industry."

In 2012, he said, Calgary switched from using the most power during winter to using the most during summer, in large part due to air conditioning, he said.

"Temperature is a strong influencer of energy consumption and of our demand," van Dijk said.

Christmas tree lights have also become primarily LED, van Dijk said, which cuts down on a big energy draw in the winter.

He said he expects more solar and other green resources will be added into the electrical system in the future to mitigate how much the increasingly levels of energy use impact climate change, and to help moderate electricity costs in Alberta over time.

 

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Alberta is a powerhouse for both green energy and fossil fuels

Alberta Renewable Energy Market is accelerating as wind and solar prices fall, corporate PPAs expand, and a deregulated, energy-only system, AESO outlooks, and TIER policy drive investment across the province.

 

Key Points

An open, energy-only Alberta market where wind and solar growth is driven by corporate PPAs, AESO outlooks, and TIER.

✅ Energy-only, deregulated grid enables private investment

✅ Corporate PPAs lower costs and hedge power price risk

✅ AESO forecasts and TIER policy support renewables

 

By Chris Varcoe, Calgary Herald

A few things are abundantly clear about the state of renewable energy in Alberta today.

First, the demise of Alberta’s Renewable Electricity Program (REP) under the UCP government isn’t going to see new projects come to a screeching halt.

In fact, new developments are already going ahead.

And industry experts believe private-sector companies that increasingly want to purchase wind or solar power are going to become a driving force behind even more projects in Alberta.

BluEarth Renewables CEO Grant Arnold, who spoke Wednesday at the Canadian Wind Energy Association conference, pointed out the sector is poised to keep building in the province, even with the end of the REP program that helped kick-start projects and triggered low power prices.

“The fundamentals here are, I think, quite fantastic — strong resource, which leads to really competitive wind prices . . . it’s now the cheapest form of new energy in the province,” he told the audience.

“Alberta is in a fundamentally good place to grow the wind power market.”

Unlike other provinces, Alberta has an open, deregulated marketplace, which create opportunities for private-sector investment and renewable power developers as well.

The recent decision by the Kenney government to stick with the energy-only market, instead of shifting to a capacity market, is seen as positive for Alberta's energy future by renewable electricity developers.

There is also increasing interest from corporations to buy wind and solar power from generators — a trend that has taken off in the United States with players such as Google, General Motors and Amazon — and that push is now emerging in Canada.

“It’s been really important in the U.S. for unlocking a lot of renewable energy development,” said Sara Hastings-Simon, founding director of the Business Renewable Centre Canada, which seeks to help corporate buyers source renewable energy directly from project developers.

“You have some companies where . . . it’s what their investors and customers are demanding. I think we will see in Alberta customers who see this as a good way to meet their carbon compliance requirements.

“And the third motivation to do it is you can get the power at a good price.”

Just last month, Perimeter Solar signed an agreement with TC Energy to supply the Calgary-based firm with 74 megawatts from its solar project near Claresholm.

More deals in the industry are being discussed, and it’s expected this shift will drive other projects forward.

There is increasing interest from corporations to buy solar and wind energy directly from generators.

“The single-biggest change has been the price of wind and solar,” Arnold said in an interview.

“Alberta looks really, really bright right now because we have an open market. All other provinces, for regulatory reasons, we can’t have this (deal) . . . between a generator and a corporate buyer of power. So Alberta has a great advantage there.”

These forces are emerging as the renewable energy industry has seen dramatic change in recent years in Alberta, with costs dropping and an array of wind and solar developments moving ahead, even as solar expansion faces challenges in the province.

The former NDP government had an aggressive target to see green energy sources make up 30 per cent of all electricity generation by 2030.

Last week, the Alberta Electric System Operator put out its long-term outlook, with its base-case scenario projecting moderate demand growth for power over the next two decades. However, the expected load growth — expanding by an average of 0.9 per cent annually until 2039 — is only half the rate seen in the past 20 years.

Natural gas will become the main generation source in the province as coal-fired power (now comprising more than one-third of generation) is phased out.

Renewable projects initiated under the former NDP government’s REP program will come online in the near term, while “additional unsubsidized renewable generation is expected to develop through competitive market mechanisms and support from corporate power purchase agreements,” the report states.

AESO forecasts installed generation capacity for renewables will almost double to about 19 per cent by 2030, with wind and solar increasing to 21 per cent by 2039.

Another key policy issue for the sector will likely come within the next few weeks when the provincial government introduces details of its new Technology Innovation and Emissions Reduction program (TIER).

The initiative will require large industrial emitters to reduce greenhouse gas emissions to a benchmark level, pay into the technology fund, or buy offsets or credits. The carbon price is expected to be around $20 to $30 a tonne, and the system will kick in on Jan. 1, 2020.

Industry players point out the decision to stick with Alberta’s energy-only market along with the details surrounding TIER, and a focus by government on reducing red tape, should all help the sector attract investment.

“It is pretty clear there is a path forward for renewables here in the province,” said Evan Wilson, regional director with the Canadian Wind Energy Association.

All of these factors are propelling the wind and solar sector forward in the province, at the same time the oil and gas sector faces challenges to grow.

But it doesn’t have to be an either/or choice for the province moving forward. We’re going to need many forms of energy in the coming decades, and Alberta is an energy powerhouse, with potential to develop more wind and solar, as well as oil and natural gas resources.

“What we see sometimes is the politics and discussion around renewables or oil becomes a deliberate attempt to polarize people,” Arnold added.

“What we are trying to show, in working in Alberta on renewable projects, is it doesn’t have to be polarizing. There are a lot of solutions.

“The combination of solutions is part of what we need to talk about.”

 

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Warren Buffett’s Secret To Cheap Electricity: Wind

Berkshire Hathaway Energy Wind Power drives cheap electricity rates in Iowa via utility-scale wind turbines, integrated transmission, battery storage, and grid management, delivering renewable energy, stable pricing, and long-term rate freezes through 2028.

 

Key Points

A vertically integrated wind utility lowering Iowa rates via owned generation, transmission, and advanced grid control.

✅ Owned wind assets meet Iowa residential demand

✅ Integrated transmission lowers costs and losses

✅ Rate freeze through 2028 sustains cheap power

 

In his latest letter to Berkshire Hathaway shareholders, Warren Buffett used the 20th anniversary of Berkshire Hathaway Energy to tout its cheap electricity bills for customers.

When Berkshire purchased the majority share of BHE in 2000, the cost of electricity for its residential customers in Iowa was 8.8 cents per kilowatt-hour (kWh) on average. Since then, these electricity rates have risen at a paltry <1% per year, with a freeze on rate hikes through 2028. As anyone who pays an electricity bill knows, that is an incredible deal.  

As Buffett himself notes with alacrity, “Last year, the rates [BHE’s competitor in Iowa] charged its residential customers were 61% higher than BHE’s. Recently, that utility received a rate increase that will widen the gap to 70%.”

 

The Winning Strategy

So, what’s Buffett’s secret to cheap electricity? Wind power.

“The extraordinary differential between our rates and theirs is largely the result of our huge accomplishments in converting wind into electricity,” Buffett explains. 

Wind turbines in Iowa that BHE owns and operates are expected to generate about 25.2 million megawatt-hours (MWh) of electricity for its customers, as projects like Building Energy operations begin to contribute. By Buffett’s estimations, that will be enough to power all of its residential customers’ electricity needs in Iowa.  


The company has plans to increase its renewable energy generation in other regions as well. This year, BHE Canada is expected to start construction on a 117.6MW wind farm in Alberta, Canada with its partner, Renewable Energy Systems, that will provide electricity to 79,000 homes in Canada’s oil country.

Observers note that Alberta is a powerhouse for both green energy and fossil fuels, underscoring the region's unique transition.

But I would argue that the secret to BHE’s success perhaps goes deeper than transitioning to sources of renewable energy. There are plenty of other utility companies that have adopted wind and solar power as an energy source. In the U.S., where renewable electricity surpassed coal in 2022, at least 50% of electricity customers have the option to buy renewable electricity from their power supplier, according to the Department of Energy. And some states, such as New York, have gone so far as to allow customers to pick from providers who generate their electricity.

What differentiates BHE from a lot of the competition in the utility space is that it owns the means to generate, store, transmit and supply renewable power to its customers across the U.S., U.K. and Canada, with lessons from the U.K. about wind power informing policy.

In its financial filings for 2019, the company reported that it owns 33,600MW of generation capacity and has 33,400 miles of transmission lines, as well as a 50% interest in Electric Transmission Texas (ETT) that has approximately 1,200 miles of transmission lines. This scale and integration enables BHE to be efficient in the distribution and sale of electricity, including selling renewable energy across regions.

BHE is certainly not alone in building renewable-energy fueled electricity dominions. Its largest competitor, NextEra, built 15GW of wind capacity and has started to expand its utility-scale solar installations. Duke Energy owns and operates 2,900 MW of renewable energy, including wind and solar. Exelon operates 40 wind turbine sites across the U.S. that generate 1,500 MW.

 

Integrated Utilities Power Ahead

It’s easy to see why utility companies see wind as a competitive source of electricity compared to fossil fuels. As I explained in my previous post, Trump’s Wrong About Wind, the cost of building and generating wind energy have fallen significantly over the past decade. Meanwhile, improvements in battery storage and power management through new technological advancements have made it more reliable (Warren Buffett bet on that one too).

But what is also striking is that integrated power and transmission enables these utility companies to make those decisions; both in terms of sourcing power from renewable energy, as well as the pricing of the final product. Until wind and solar power are widespread, these utility companies are going to have an edge of the more fragmented ends of the industry who can’t make these purchasing or pricing decisions independently. 

Warren Buffett very rarely misses a beat. He’s not the Oracle of Omaha for nothing. Berkshire Hathaway’s ownership of BHE has been immensely profitable for its shareholders. In the year ended December 31, 2019, BHE and its subsidiaries reported net income attributable to BHE shareholders of $2.95 billion.

There’s no question that renewable energy will transform the utility industry over the next decade. That change will be led by the likes of BHE, who have the power to invest, control and manage their own energy generation assets.

 

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How waves could power a clean energy future

Wave Energy Converters can deliver marine power to the grid, with DOE-backed PacWave enabling offshore testing, robust designs, and renewable electricity from oscillating waves to decarbonize coastal communities and replace diesel in remote regions.

 

Key Points

Wave energy converters are devices that transform waves' oscillatory motion into electricity for the grid or loads.

✅ DOE's PacWave enables full-scale, grid-connected offshore testing.

✅ Multiple designs convert oscillating motion into torque and power.

✅ Ideal for islands, microgrids, and replacing diesel generation.

 

Waves off the coast of the U.S. could generate 2.64 trillion kilowatt hours of electricity per year — that’s about 64% of last year’s total utility-scale electricity generation in the U.S. We won’t need that much, but one day experts do hope that wave energy will comprise about 10-20% of our electricity mix, alongside other marine energy technologies under development today.

“Wave power is really the last missing piece to help us to transition to 100% renewables, ” said Marcus Lehmann, co-founder and CEO of CalWave Power Technologies, one of a number of promising startups focused on building wave energy converters.

But while scientists have long understood the power of waves, it’s proven difficult to build machines that can harness that energy, due to the violent movement and corrosive nature of the ocean, combined with the complex motion of waves themselves, even as a recent wave and tidal market analysis highlights steady advances.

″Winds and currents, they go in one direction. It’s very easy to spin a turbine or a windmill when you’ve got linear movement. The waves really aren’t linear. They’re oscillating. And so we have to be able to turn this oscillatory energy into some sort of catchable form,” said Burke Hales, professor of cceanography at Oregon State University and chief scientist at PacWave, a Department of Energy-funded wave energy test site off the Oregon Coast. Currently under construction, PacWave is set to become the nation’s first full-scale, grid-connected test facility for these technologies, a milestone that parallels U.K. wind power lessons on scaling new industries, when it comes online in the next few years.

“PacWave really represents for us an opportunity to address one of the most critical barriers to enabling wave energy, and that’s getting devices into the open ocean,” said Jennifer Garson, Director of the Water Power Technologies Office at the U.S. Department of Energy.

At the beginning of the year, the DOE announced $25 million in funding for eight wave energy projects to test their technology at PacWave, as offshore wind forecasts underscore the growing investor interest in ocean-based energy. We spoke with a number of these companies, which all have different approaches to turning the oscillatory motion of the waves into electrical power.

Different approaches
Of the eight projects, Bay Area-based CalWave received the largest amount, $7.5 million. 

″The device we’re testing at PacWave will be a larger version of this,” said Lehmann. The x800, our megawatt-class system, produces enough power to power about 3,000 households.”

CalWave’s device operates completely below the surface of the water, and as waves rise and fall, surge forward and backward, and the water moves in a circular motion, the device moves too. Dampers inside the device slow down that motion and convert it into torque, which drives a generator to produce electricity, a principle mirrored in some wind energy kite systems as they harvest aerodynamic forces.

“And so the waves move the system up and down. And every time it moves down, we can generate power, and then the waves bring it back up. And so that oscillating motion, we can turn into electricity just like a wind turbine,” said Lehmann.

Another approach is being piloted by Seattle-based Oscilla Power, which was awarded $1.8 million from the DOE, and is getting ready to deploy its wave energy converter off the coast of Hawaii, at the U.S. Navy Wave Energy Test site.

Oscilla Power’s device is composed of two parts. One part floats on the surface and moves with the waves in all directions — up and down, side to side and rotationally. This float is connected to a large, ring-shaped structure which hangs below the surface, and is designed to stay relatively steady, much like how underwater kites leverage a stable reference to generate power. The difference in motion between the float and the ring generates force on the connecting lines, which is used to rotate a gearbox to drive a generator.

″The system that we’re deploying in Hawaii is what we call the Triton-C. This is a community-scale system,” said Balky Nair, CEO of Oscilla Power. “It’s about a third of the size of our flagship product. It’s designed to be 100 kilowatt rated, and it’s designed for islands and small communities.”

Nair is excited by wave energy’s potential to generate electricity in remote regions, which currently rely on expensive and polluting diesel imports to meet their energy needs when other renewables aren’t available, and similar tidal energy for remote communities efforts in Canada point to viable models. Before wave energy is adopted at-scale, many believe we’ll see wave energy replacing diesel generators in off-the-grid communities.

A third company, C-Power, based in Charlottesville, Virginia, was awarded more than $4 million to test its grid-scale wave energy converter at PacWave. But first, the company wants to commercialize its smaller scale system, the SeaRAY, which is designed for lower-power applications. 

″Think about sensors in the ocean, research, metocean data gathering, maybe it’s monitoring or inspection,” said C-Power CEO Reenst Lesemann on the initial applications of his device.

The SeaRAY consists of two floats and a central body, the nacelle, which contains the drivetrain. As waves pass by, the floats bob up and down, rotating about the nacelle and turning their own respective gearboxes which power the electric generators.

Eventually, C-Power plans to scale up its SeaRAY so that it’s capable of satellite communications and deep water deployments, before building a larger system, called the StingRAY, for terrestrial electricity generation.

Meanwhile, one Swedish company, Eco Wave Power, is taking another approach completely, eschewing offshore technologies in favor of simpler wave power devices that can be installed on breakwaters, piers, and jetties.

“All the expensive conversion machinery, instead of being inside the floaters like in the competing technologies, is on land just like a regular power station. So basically this enables a very low installation, operation, and maintenance cost,” explained CEO Inna Braverman.

 

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Project examines potential for Europe's power grid to increase HVDC Technology

HVDC-WISE Project accelerates HVDC technology integration across the European transmission system, delivering a planning toolkit to boost grid reliability, resilience, and interconnectors for renewables and offshore wind amid climate, cyber, and physical threats.

 

Key Points

EU-funded project delivering tools to integrate HVDC into Europe's grid, improving reliability, resilience, and security.

✅ EU Horizon Europe-backed consortium of 14 partners

✅ Toolkit to assess extreme events and grid operability

✅ Supports interconnectors, offshore wind, and renewables

 

A partnership of 14 leading European energy industry companies, research organizations and universities has launched a new project to identify opportunities to increase integration of HVDC technology into the European transmission system, echoing calls to invest in smarter electricity infrastructure from abroad.

The HVDC-WISE project, in which the University of Strathclyde is the UK’s only academic partner, is supported by the European Union’s Horizon Europe programme.

The project’s goal is to develop a toolkit for grid developers to evaluate the grid’s performance under extreme conditions and to plan systems, leveraging a digital grid approach that supports coordination to realise the full range of potential benefits from deep integration of HVDC technology into the European transmission system.

The project is focused on enhancing electric grid reliability and resilience while navigating the energy transition. Building and maintaining network infrastructure to move power across Europe is an urgent and complex task, and reducing losses with superconducting cables can play a role, particularly with the continuing growth of wind and solar generation. At the same time, threats to the integrity of the power system are on the rise from multiple sources, including climate, cyber, and physical hazards.

 

Mutual support

At a time of increasing worries about energy security and as Europe’s electricity systems decarbonise, connections between them to provide mutual support and routes to market for energy from renewables, a dynamic also highlighted in discussions of the western Canadian electricity grid in North America, become ever more important.

In modern power systems, this means making use of High Voltage Direct Current (HVDC) technology.

The earliest forms of technology have been around since the 1960s, but the impact of increasing reliance on HVDC and its ability to enhance a power system’s operability and resilience are not yet fully understood.

Professor Keith Bell, Scottish Power Professor of Future Power Systems at the University of Strathclyde, said:

As an island, HVDC is the only practical way for us to build connections to other countries’ electricity systems. We’re also making use of it within our system, with one existing and more planned Scotland-England subsea link projects connecting one part of Britain to another.

“These links allow us to maximise our use of wind energy. New links to other countries will also help us when it’s not windy and, together with assets like the 2GW substation now in service, to recover from any major disturbances that might occur.

“The system is always vulnerable to weather and things like lightning strikes or short circuits caused by high winds. As dependency on electricity increases, insights from electricity prediction specialists can inform planning as we enhance the resilience of the system.”

Dr Agusti Egea-Alvarez, Senior Lecturer at Strathclyde, said: “HVDC systems are becoming the backbone of the British and European electric power network, either interconnecting countries, or connecting offshore wind farms.

“The tools, procedures and guides that will be developed during HVDC-WISE will define the security, resilience and reliability standards of the electric network for the upcoming decades in Europe.”

Other project participants include Scottish Hydro Electric Transmission, the Supergrid Institute, the Electric Power Research Institute (EPRI) Europe, Tennet TSO, Universidad Pontificia Comillas, TU Delft, Tractebel Impact and the University of Cyprus.

 

Climate change

Eamonn Lannoye, Managing Director of EPRI Europe, said: “The European electricity grid is remarkably reliable by any standard. But as the climate changes and the grid becomes exposed to more extreme conditions, energy interdependence between regions intensifies and threats from external actors emerge. The new grid needs to be robust to those challenges.”

Juan Carlos Gonzalez, a senior researcher with the SuperGrid Institute which leads the project said: “The HVDC-WISE project is intended to provide planners with the tools and know-how to understand how grid development options perform in the context of changing threats and to ensure reliability.”

HVDC-WISE is supported by the European Union’s Horizon Europe programme under agreement 101075424 and by the UK Research and Innovation Horizon Europe Guarantee scheme.

 

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Coronavirus puts electric carmakers on alert over lithium supplies

Western Lithium Supply Localization is accelerating as EV battery makers diversify from China, boosting lithium hydroxide sourcing in North America and Europe, amid Covid-19 disruptions and rising prices, with geothermal brines and local processing.

 

Key Points

An industry shift to source lithium and processing near EV hubs, reducing China reliance and supply chain risk.

✅ EV makers seek North American and European lithium hydroxide

✅ Prices rise amid Covid-19 and logistics constraints

✅ New extraction: geothermal and oilfield brine projects

 

The global outbreak of coronavirus will accelerate efforts by western carmakers to localise supplies of lithium for electric car batteries, according to US producer Livent.

The industry was keen to diversify away from China, which produces the bulk of the world’s lithium, a critical material for lithium-ion batteries, said Paul Graves, Livent’s chief executive.

“It’s a conversation that’s starting to happen that was not happening even six months ago,” especially in the US, the former Goldman Sachs banker added.

China produced about 79 per cent of the lithium hydroxide used in electric car batteries last year, according to consultancy CRU, a supply chain that has been disrupted by the virus outbreak and EV shortages in some markets.

Prices for lithium hydroxide rose 3.1 per cent last month, their first increase since May 2018, according to Benchmark Mineral Intelligence, due to the impact of the Covid-19 bug.

Chinese lithium producer Ganfeng Lithium, which supplies major carmakers from Tesla to Volkswagen, said it had raised prices by less than 10 per cent, due to higher production costs and logistical difficulties.

“We can get lithium from lots of places . . . is that really something we’re prepared to rely upon?” Mr Graves said. “People are going to relook at supply chains, including battery recycling initiatives that enhance resilience, and relook at their integrity . . . and they’re going to say is there something we need to do to change our supply chains to make them more shockproof?”

General Motors last week said it was looking to source battery minerals such as lithium and nickel from North America for its new range of electric cars that will use cells made in Ohio by South Korea’s LG Chem.

“Some of these critical minerals could be challenging to obtain; it’s not just cobalt you need to be concerned about but also battery-grade nickel and lithium as well,” said Andy Oury, a lead engineer for batteries at GM. “We’re doing all of this with an eye to sourcing as much of the raw material from North America as possible.”

However, George Heppel, an analyst at CRU, warned it would be difficult to compete with China on costs. “China is always going to be the most competitive place to buy battery raw materials. That’s not likely to change anytime soon,” he said.

Livent, which extracts lithium from brines in northern Argentina, is looking at extracting the mineral from geothermal resources in the US and also wants to build a processing plant in Europe.

The Philadelphia-based company is also working with Canadian start-up E3 Metals to extract lithium from brines in Alberta's oil and gasfields for new projects in Canada.

“We’ll look at doing more in the US and more in Europe,” said Mr Graves, underscoring evolving Canada-U.S. collaboration across EV supply chains.


 

 

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