Solar Is Now 33% Cheaper Than Gas Power in US, Guggenheim Says

Centrica Dyce Battery Storage will deliver 30MW 2hr capacity in Aberdeenshire, capturing North Sea offshore wind to reduce curtailment, enhance grid flexibility, and strengthen UK energy independence with reliable renewable energy balancing.

Key Points

A 30MW 2hr battery in Dyce, Aberdeenshire, storing North Sea wind to cut curtailment and ease UK grid constraints.

✅ 30MW 2hr system near North Sea offshore wind connection

✅ Cuts curtailment and boosts grid flexibility and reliability

✅ Can power 70,000 homes for an hour with daily cycles

CENTRICA Business Solutions has secured the development rights for a fully consented 30MW 2hr battery storage plant in Aberdeenshire that will help maximise the use of renewable energy in the Scottish North Sea.

The site in Dyce, near Aberdeen is located near a connection for North Sea UK offshore wind farms and will contribute towards managing network constraints – by storing electricity when it is abundant for times when it is not, helping improve the energy independence of the UK and reduce our reliance on fossil fuels. 

Last year, the National Grid paid £244million to wind farm operators to shut down turbines, as they risked overloading the Scottish grid, a process known as curtailment. Battery storage is one method of helping to utilise that wasted energy resource, ensuring fewer green electrons are curtailed. 

Once built, the 30MW 2hr Dyce battery storage plant will store enough energy to power 70,000 homes for an hour. This discharge happens up to four hours per day, as seen in other large-scale deployments like France's largest battery platform that optimise grid balancing.

The project was developed by Cragside Energy Limited, backed by Omni Partners LLP, and obtained planning consent in November 2021. The go-live date for the project is mid-2024, construction should last eight months and will be aligned with the grid connection date.

“Battery storage can play a strategic role in helping to transition away from fossil fuels, by smoothing out the peak demand and troughs associated with renewable energy generation,” said Bill Rees, Director of Centrica Energy Assets. “We should treat renewable energy like a precious resource and projects like this can help to maximise its efficacy.” 

The project forms part of Centrica Energy Assets’ plan to deliver 900MW of solar and battery storage assets by 2026, increasingly paired with solar in global deployments. Centrica already owns and operates the 49MW fast response battery at Roosecote, Cumbria. 

Centrica Business Solutions Managing Director Greg McKenna, said: “Improving the energy independence of the UK is essential to help manage energy costs and move away from fossil fuels. The Government has set a target of a green electricity grid by 2035 – that’s only achievable if we build out the level of flexibility in the system, to help manage supply and demand.”

Centrica Energy Assets will work with Cragside Energy to identify new opportunities in the energy storage space. Cragside Energy’s growing pipeline exceeds 200MW, and focuses on low carbon and flexible assets, including energy storage, solar and peaking plant schemes, supported by falling battery costs across the sector.

Ben Coulston, Director of Cragside Energy, added: “Targeted investment into a complementary mix of diverse energy sources and infrastructure is crucial if the UK is to fully harness its renewable energy potential. Battery storage, such as the project in Dyce, will contribute to the upkeep of a stable and resilient network and we have enjoyed partnering with Centrica as the project transitions into the next phase”.

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Ontario EV Charger Streamlining accelerates public charging connections with OEB-led standardized forms, firm timelines, and utility coordination, leveraging Ontario’s clean electricity grid to expand reliable infrastructure across urban, rural, and northern communities.

Key Points

An OEB-led, provincewide procedure that standardizes EV charger connections and accelerates public charging.

✅ Standardized forms, data, and responsibilities across 58 utilities

✅ Firm timelines for studies, approvals, and grid connection upgrades

✅ Supports rural, northern, highway, and community charging expansion

The Ontario government is making it easier to build and connect new public electric vehicle (EV) chargers to the province’s world-class clean electricity grid. Starting May 27, 2024, all local utilities will follow a streamlined process for EV charging connections that will make it easier to set up new charging stations and, as network progress to date shows, support the adoption of electric vehicles in Ontario.

“As the number of EV owners in Ontario continues to grow, our government is making it easier to put shovels in the ground to build the critical infrastructure needed for drivers to charge their vehicles where and when they need to,” said Todd Smith, Minister of Energy. “This is just another step we are taking to reduce red tape, increase EV adoption, and use our clean electricity supply to support the electrification of Ontario’s transportation sector.”

Today, each of Ontario’s 58 local electricity utilities have different procedures for connecting new public EV charging stations, with different timelines, information requirements and responsibilities for customers.

In response to Minister Smith’s Letter of Direction, which called on the Ontario Energy Board (OEB) to take steps to facilitate the efficient integration of EV’s into the provincial electricity system, including vehicle-to-building charging applications, the OEB issued provincewide, streamlined procedures that all local utilities must follow for installing and connecting new EV charging infrastructure. This new procedure includes the implementation of standardized forms, timelines, and information requirements which will make it easier for EV charging providers to deploy chargers in all regions of the province.

“Our government is paving the way to an electric future by building the EV charging infrastructure drivers need, where they need it,” said Prabmeet Sarkaria, Minister of Transportation. “By increasing the accessibility of public EV charging stations across the province, including for rural and northern communities, we are providing more sustainable and convenient travel options for drivers.”

“Having attracted over $28 billion in automotive investments in the last three years, our province is a leading jurisdiction in the global production and development of EVs,” said Vic Fedeli, Minister of Economic Development, Job Creation and Trade. “By making it easier to build public charging infrastructure, our government is supporting Ontario’s growing end-to-end EV supply chain and ensuring EV drivers can confidently and conveniently power their journeys.”

This initiative is part of the government’s larger plan to support the adoption of electric vehicles and make EV charging infrastructure more accessible, which includes:

• The EV ChargeON program – a $91 million investment to support the installation of public EV chargers, including emerging V1G chargers to support grid-friendly deployment, outside of Ontario’s large urban centres, including at community hubs, Ontario’s highway rest areas, carpool parking lots, and Ontario Parks.
• The new Ultra-Low Overnight price plan which allows customers who use more electricity at night, including those charging their EV, to save up to $90 per year by shifting demand to the ultra-low overnight rate period when provincewide electricity demand is lower and to participate in programs that let them sell electricity back to the grid when appropriate.
• Making it more convenient for electric vehicle (EV) owners to travel the province with EV fast chargers now installed at all 20 renovated ONroute stations along the province’s busiest highways, the 400 and 401.

The initiative also builds on the government’s Driving Prosperity: The Future of Ontario’s Automotive Sector plan which aims to create a domestic EV battery ecosystem in the province, expand energy storage capacity, and position Ontario as a North American automotive innovation hub by working to support the continued transition to electric, low carbon, connected and autonomous vehicles.

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Eastern Green Link 1 is a 190km HVDC subsea electricity superhighway linking Scotland to northern England, delivering renewable energy, boosting grid capacity, and enhancing energy security for National Grid and Scottish Power.

Key Points

A 190km HVDC subsea link sending Scottish renewables to northern England, boosting grid capacity and UK energy security.

✅ 190km HVDC subsea route from East Lothian to County Durham

✅ Cables by Prysmian; converter stations by GE Vernova, Mytilineos

✅ Powers the equivalent of 2 million UK households

One of Britain’s biggest power grid projects has awarded contracts worth £1.8bn for a 190km subsea electricity superhighway, akin to a hydropower line to New York in scale, to bring renewable power from Scotland to the north of England.

National Grid and Scottish Power, following a recent 2GW substation commissioning, plan to begin building the “transformative” £2.5bn high-voltage power line along the east coast of the country from East Lothian to County Durham from 2025.

The Eastern Green Link 1 (EGL1) project is one of Britain’s largest grid upgrade projects in generations and has been designed to carry enough clean electricity to power the equivalent of 2 million households.

The UK is under pressure to deliver a power grid overhaul, including moves to fast-track grid connections nationwide, as it prepares to double its demand for electricity by 2040 as part of a plan to cut the use of gas and other fossil fuels.

The International Energy Agency has forecast that 600,000km of electric lines will need to be either added or upgraded across the UK by the end of the next decade to meet its climate targets, amid a global race to secure supplies of high voltage cabling and other electrical infrastructure components and to explore superconducting cables to cut losses.

The EGL1 project has awarded Prysmian Group, an international cable maker, the contract to deliver nearly 400km of power cable. The contract to supply two HVDC technology converter stations, one at each end of the cable, has been awarded to GE Vernova and Mytilineos.

The upgrades are expected to cost tens of billions of pounds, according to National Grid, which faces plans for an independent system operator overseeing Great Britain’s electricity market. The FTSE 100 energy company has warned that five times as many pylons and underground lines need to be constructed by the end of the decade than in the past 30 years, and four times more undersea cables laid than there are at present.

Britain’s power grid upgrades are also expected to emerge as an important battleground in the general election. The next government will need to balance the strong local opposition to new grid infrastructure across rural areas of the UK against the climate and economic benefits of the work.

Research undertaken by National Grid has found there will be an estimated 400,000 jobs created by 2050 due to the work needed to rewire Britain’s grid, a trend mirrored by recent cross-border transmission approvals in North America, including about 150,000 jobs anticipated in Scotland and the north of England.

Peter Roper, the project director for EGL1, said the super-cable would be “a transformative project for the UK, enhancing security of supply and helping to connect and transport green power for all customers”.

He added: “These contract announcements are big wins for the supply chain and another important milestone as we build the new network infrastructure to help the UK meet its net zero and energy security ambitions.

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Electrified Trucking Grid Integration explores vehicle-to-grid (V2G) strategies where rolling batteries backfeed power during peak demand, optimizing charging infrastructure, time-of-use pricing, and IESO market operations for Ontario shippers like Nature Fresh Farms.

Key Points

An approach using V2G-enabled electric trucks to support the grid, cut peak costs, and add revenue streams.

✅ Models charging sites, timing, and local grid impacts.

✅ Evaluates V2G backfeed economics and IESO pricing.

✅ Uses Nature Fresh Farms data for logistics and energy.

A University of Windsor project will study whether an electrified trucking industry might not only deliver the goods, but help keep the lights on with the timely off-loading of excess electrons from their powerful batteries via vehicle-to-grid approaches now emerging.

The two-year study is being overseen by Environmental Energy Institute director Rupp Carriveau and associate professor Hanna Moah of the Cross-Border Institute in conjunction with the Leamington-based greenhouse grower Nature Fresh Farms.

“The study will look at what happens if we electrified the transport truck fleet in Ontario to different degrees, considering the power demand for truck fleets that would result,” Carriveau said.

“Where trucks would be charging and how that will affect the electricity grid grid coordination in those locations at specific times. We’ll be able to identify peak times on the demand side.

“On the other side, we have to recognize these are rolling batteries. They may be able to backfeed the grid, sell electricity back to prop the grid up in locations it wasn’t able to in the past.”

The national research organization Mathematics of International Technology and Complex Systems (Mitacs) is funding the $160,000 study, and the Independent Electricity Systems Operator, a Crown corporation responsible for operating Ontario’s electricity market, amid an electricity supply crunch that is boosting storage efforts, is also offering support for the project.

Because of the varying electricity prices in the province based on usage, peak demand and even time of year, Carriveau said there could be times where draining off excess truck battery power will be cheaper than the grid, and vehicle-to-building charging models show how those savings can be realized.

“It could offer the truck owner another revenue stream from his asset, and businesses a cheaper electricity alternative in certain circumstances,” he said.

The local greenhouse industry was a natural fit for the study, said Carriveau, based on the amount of work the university does with the sector along with the fact it is both a large consumer and producer of electricity.

The study will be based on assumptions for electric truck capacity and performance because the low number of such vehicles currently on the road, though large electric bus fleets offer operational insights.

How will an electrified trucking industry affect Ontario’s electricity grid? University of Windsor engineering professor Rupp Carriveau is part of a new study on trucks being used to help deliver electricity as well as their products around Ontario. He is shown on campus on Tuesday, July 6, 2021.

How will an electrified trucking industry affect Ontario’s electricity grid? University of Windsor engineering professor Rupp Carriveau is part of a new study on trucks being used to help deliver electricity as well as their products around Ontario. He is shown on campus on Tuesday, July 6, 2021.

Nature Fresh Farms will supply all its data on power use, logistics, utility costs and shipping schedules to determine if switching to an electrified fleet makes sense for the company.

“As an innovative company, we are always thinking, ‘What is next?’, whether its developments in product varieties, technology or sustainability,” said company CEO Peter Quiring. “Green transportation is the next big focus.

“We were given the opportunity to work closely on this project and offer our operations as a case study to see how we can find feasible alternatives, not only for Nature Fresh Farms or even for companies in agriculture, but for every industry that relies on the transportation of their goods.”

Currently, Nature Fresh Farms doesn’t have any electrified trucks. Carriveau said the second phase of the study might actually involve an electric truck in a pilot project.

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Electric Vehicle Ownership Costs include lower maintenance, repair, and fuel expenses; Consumer Reports shows BEV and PHEV TCO beats ICE over 200,000 miles, with per-mile savings compounding through electricity prices and reduced service.

Key Points

Lifetime EV expenses, typically lower than ICE, due to cheaper electricity, reduced maintenance, and fewer repairs.

✅ BEV: $0.012/mi to 50k; $0.028/mi after; vs ICE up to $0.06/mi

✅ PHEV: $0.021/mi to 50k; $0.031/mi after; still below ICE

✅ Savings increase over 200k miles from fuel and service reductions

Electric vehicles are a relatively new technology, and the EV age is arriving ahead of schedule today. Even though we technically saw the first battery-powered vehicles more than 100 years ago, they haven’t really become viable transportation in the modern world until recently, and they are greener than ever in all 50 states as the grid improves.

As viable as they may now be, however, it still seems they’re unarguably more expensive than their conventional internal-combustion counterparts, prompting many to ask whether it’s time to buy an electric car today. Well, until now.

Lower maintenence costs and the lower price of electricity versus gasoline (see the typical cost to charge an electric vehicle in most regions) actually make electric cars much cheaper in the long run, despite their often higher purchase price, according to a new survey by Consumer Reports. The information was collected using annual reliability surveys conducted by CR in 2019 and 2020.

In the first 50,000 miles (80,500 km), battery electric vehicles cost just US$0.012 per mile for maintenence and repairs, while plug-in hybrid models bump that number up to USD$0.021. Compare these numbers to the typical USD$0.028 cost for internal combustion vehicles, and it becomes clear the more you drive, the more you will save, and across the U.S. plug-ins logged 19 billion electric miles in 2021 to prove the point. After 50,000 miles, the costs for BEV and PHEV vehicles is US$0.028 and US$0.031 respectively, while ICE vehicles jump to US$0.06 per mile.

To put it more practically, if you chose to buy a Model 3 instead of a BMW 330i, you’d see a total US$17,600 in savings over the lifetime of the vehicle, aligning with evidence that EVs are better for the planet and your budget as well, based on average driving. In the SUV sector, buying a Tesla Model Y instead of a Lexus crossover would save US$13,400 (provided the former’s roof doesn’t fly off) and buying a Nissan Leaf over a Honda Civic would save US$6,000 over the lifetime of the vehicles.

CR defines the vehicle’s “lifetime” as 200,000 miles (320,000 km). Ergo the final caveat: while it sounds like driving electric means big savings, you might only see those returns after quite a long period of ownership, though some forecasts suggest that within a decade adoption will be nearly universal for many drivers.

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Electric Vehicle Price Parity 2027 signals cheaper EV manufacturing as battery costs plunge, widening model lineups, and tighter EU emissions rules; UBS and BloombergNEF foresee parity, with TCO advantages over ICE amid growing fast-charging networks.

Key Points

EV cost parity in 2027 when manufacturing undercuts ICE, led by cheaper batteries, wider lineups, and emissions policy.

✅ Battery costs drop 58% next decade, after 88% fall

✅ Manufacturing parity across segments from 2027

✅ TCO favors EVs; charging networks expand globally

A Bloomberg/NEF report commissioned by Transport & Environment forecasts 2027 as the year when electric vehicles will start to become cheaper to manufacture than their internal combustion equivalents across all segments, aligning with analyses that the EV age is arriving ahead of schedule for consumers and manufacturers alike, mainly due to a sharp drop in battery prices and the appearance of new models by more manufacturers.

Batteries, which have fallen in price by 88% over the past decade and are expected to plunge by a further 58% over the next 10 years, make up between one-quarter and two-fifths of the total price of a vehicle. The average pre-tax price of a mid-range electric vehicle is around €33,300, and higher upfront prices concern many UK buyers compared to €18,600 for its diesel or gasoline equivalent. In 2026, both are expected to cost around €19,000, while in 2030, the same electric car will cost €16,300 before tax, while its internal combustion equivalent will cost €19,900, and that’s without factoring in government incentives.

Other reports, such as a recent one by UBS, put the date of parity a few years earlier, by 2024, after which they say there will be little reason left to buy a non-electric vehicle, as the market has expanded from near zero to 2 million in just five years.

In Europe, carmakers will become a particular stakeholder in this transition due to heavy fines for exceeding emissions limits calculated on the basis of the total number of vehicles sold. Increasing the percentage of electric vehicles in the annual sales portfolio is seen by the industry as the only way to avoid these fines. In addition to brands such as Bentley or Jaguar Land Rover, which have announced the total abandonment of internal combustion engine technology by 2025, or Volvo, which has set 2030 as the target date, other companies such as Ford, which is postponing this date in its home market, also set 2030 for the European market, which clearly demonstrates the suitability of this type of policy.

Nevertheless internal combustion vehicles will continue to travel on the roads or will be resold in developing countries. In addition to the price factor, which is even more accentuated when estimates are carried out in terms of total cost of ownership calculations due to the lower cost of electric recharging versus fuel and lower maintenance requirements, other factors such as the availability of fast charging networks must be taken into account.

While price parity is approaching, it is worth thinking about the factors that are causing car sales, which are still behind gasoline models in share, to suffer: the chip crisis, which is strongly affecting the automotive industry and will most likely extend until 2022, is creating production problems and the elimination of numerous advanced electronic options in many models, which reduces the incentive to purchase a vehicle at the present time. These types of reasons could lead some consumers to postpone purchasing a vehicle precisely when we may be talking about the final years for internal combustion technology, which would increase the likelihood that, later on and as the price gap closes, they would opt for an electric vehicle.

Finally, in the United States, the ambitious infrastructure plan put in place by the Biden administration also promises to accelerate the transition to electric vehicles by addressing key barriers to mainstream adoption such as charging access, which in turn is fueling the interest of automotive companies to have more electric vehicles in their range. In Europe, meanwhile, more Chinese brands offering electric vehicles are beginning to enter the most advanced markets, such as Norway and the Netherlands, with plans to expand to the rest of the continent with very competitive offers in terms of price.

One way or another, the future of the automotive industry is electric, and the transition will take place during the remainder of this decade. You might want to think about it if you are weighing whether it’s time to buy an electric car this year.

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