Electric Cars 101: How EV Motors Work, Tech Differences, and More


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Electric Car Motors convert electricity to torque via rotor-stator magnetic fields, using AC/DC inverters, permanent magnets or induction designs; they power EV powertrains efficiently and enable regenerative braking for energy recovery and control.

 

Key Points

Electric car motors turn electrical energy into wheel torque using rotor-stator fields, inverters, and AC or DC control.

✅ AC induction, PMSM, BLDC, and reluctance architectures explained

✅ Inverters manage AC/DC, voltage, and motor speed via frequency

✅ Regenerative braking recovers energy and reduces wear

 

When was the last time you stopped to think about how electric cars actually work, especially if you're wondering whether to buy an electric car today? We superfans of the car biz have mostly developed a reasonable understanding of how combustion powertrains work. Most of us can visualize fuel and air entering a combustion chamber, exploding, pushing a piston down, and rotating a crankshaft that ultimately turns the wheels. We generally understand the differences between inline, flat, vee-shaped, and maybe even Wankel rotary combustion engines.

Mechanical engineering concepts such as these are comparatively easy to comprehend. But it's probably a fair bet to wager that only a minority of folks reading this can explain on a bar napkin exactly how invisible electrons turn a car's wheels or how a permanent-magnet motor differs from an AC induction one. Electrical engineering can seem like black magic and witchcraft to car nuts, so it's time to demystify this bold new world of electromobility, with the age of electric cars arriving ahead of schedule.

How Electric Cars Work: Motors
It has to do with magnetism and the natural interplay between electric fields and magnetic fields. When an electrical circuit closes allowing electrons to move along a wire, those moving electrons generate an electromagnetic field complete with a north and a south pole. When this happens in the presence of another magnetic field—either from a different batch of speeding electrons or from Wile E. Coyote's giant ACME horseshoe magnet, those opposite poles attract, and like poles repel each other.


 

Electric motors work by mounting one set of magnets or electromagnets to a shaft and another set to a housing surrounding that shaft. By periodically reversing the polarity (swapping the north and south poles) of one set of electromagnets, the motor leverages these attracting and repelling forces to rotate the shaft, thereby converting electricity into torque and ultimately turning the wheels, in a sector where the electric motor market is growing rapidly worldwide. Conversely—as in the case of regenerative braking—these magnetic/electromagnetic forces can transform motion back into electricity.

How Electric Cars Work: AC Or DC?
The electricity supplied to your home arrives as alternating current (AC), and bidirectional charging means EVs can power homes for days as needed, so-called because the north/south or plus/minus polarity of the power changes (alternates) 60 times per second. (That is, in the United States and other countries operating at 110 volts; countries with a 220-volt standard typically use 50-Hz AC.) Direct current (DC) is what goes into and comes out of the + and - poles of every battery. As noted above, motors require alternating current to spin. Without it, the electromagnetic force would simply lock their north and south poles together. It's the cycle of continually switching north and south that keeps a motor spinning.


 

Today's electric cars are designed to manage both AC and DC energy on board. The battery stores and dispenses DC current, but again, the motor needs AC. When recharging the battery, and with increasing grid coordination enabling flexibility, the energy comes into the onboard charger as AC current during Level 1 and Level 2 charging and as DC high-voltage current on Level 3 "fast chargers." Sophisticated power electronics (which we will not attempt to explain here) handle the multiple onboard AC/DC conversions while stepping the voltage up and down from 100 to 800 volts of charging power to battery/motor system voltages of 350-800 volts to the many vehicle lighting, infotainment, and chassis functions that require 12-48-volt DC electricity.

How Electric Cars Work: What Types Of Motors?
DC Motor (Brushed): Yes, we just said AC makes the motor go around, and these old-style motors that powered early EVs of the 1900s are no different. DC current from the battery is delivered to the rotor windings via spring-loaded "brushes" of carbon or lead that energize spinning contacts connected to wire windings. Every few degrees of rotation, the brushes energize a new set of contacts; this continually reverses the polarity of the electromagnet on the rotor as the motor shaft turns. (This ring of contacts is known as the commutator).

The housing surrounding the rotor's electromagnetic windings typically features permanent magnets. (A "series DC" or so-called "universal motor" may use an electromagnetic stator.) Advantages are low initial cost, high reliability, and ease of motor control. Varying the voltage regulates the motor's speed, while changing the current controls its torque. Disadvantages include a lower lifespan and the cost of maintaining the brushes and contacts. This motor is seldom used in transportation today, save for some Indian railway locomotives.

Brushless DC Motor (BLDC): The brushes and their maintenance are eliminated by moving the permanent magnets to the rotor, placing the electromagnets on the stator (housing), and using an external motor controller to alternately switch the various field windings from plus to minus, thereby generating the rotating magnetic field.

Advantages are a long lifespan, low maintenance, and high efficiency. Disadvantages are higher initial cost and more complicated motor speed controllers that typically require three Hall-effect sensors to get the stator-winding current phased correctly. That switching of the stator windings can result in "torque ripple"—periodic increases and decreases in the delivered torque. This type of motor is popular for smaller vehicles like electric bikes and scooters, and it's used in some ancillary automotive applications like electric power steering assist.


 

Permanent-Magnet Synchronous Motor (PMSM): Physically, the BLDC and PMSM motors look nearly identical. Both feature permanent magnets on the rotor and field windings in the stator. The key difference is that instead of using DC current and switching various windings on and off periodically to spin the permanent magnets, the PMSM functions on continuous sinusoidal AC current. This means it suffers no torque ripple and needs only one Hall-effect sensor to determine rotor speed and position, so it's more efficient and quieter.

The word "synchronous" indicates the rotor spins at the same speed as the magnetic field in the windings. Its big advantages are its power density and strong starting torque. A main disadvantage of any motor with spinning permanent magnets is that it creates "back electromotive force" (EMF) when not powered at speed, which causes drag and heat that can demagnetize the motor. This motor type also sees some duty in power steering and brake systems, but it has become the motor design of choice in most of today's battery electric and hybrid vehicles.


 

Note that most permanent-magnet motors of all kinds orient their north-south axis perpendicular to the output shaft. This generates "radial (magnetic) flux." A new class of "axial flux" motors orients the magnets' N-S axes parallel to the shaft, usually on pairs of discs sandwiching stationary stator windings in between. The compact, high-torque axial flux orientation of these so-called "pancake motors" can be applied to either BLDC or PMSM type motors.


 

AC Induction: For this motor, we toss out the permanent magnets on the rotor (and their increasingly scarce rare earth materials) and keep the AC current flowing through stator windings as in the PMSM motor above.

Standing in for the magnets is a concept Nikola Tesla patented in 1888: As AC current flows through various windings in the stator, the windings generate a rotating field of magnetic flux. As these magnetic lines pass through perpendicular windings on a rotor, they induce an electric current. This then generates another magnetic force that induces the rotor to turn. Because this force is only induced when the magnetic field lines cross the rotor windings, the rotor will experience no torque or force if it rotates at the same (synchronous) speed as the rotating magnetic field.

This means AC induction motors are inherently asynchronous. Rotor speed is controlled by varying the alternating current's frequency. At light loads, the inverter controlling the motor can reduce voltage to reduce magnetic losses and improve efficiency. Depowering an induction motor during cruising when it isn't needed eliminates the drag created by a permanent-magnet motor, while dual-motor EVs using PMSM motors on both axles must always power all motors. Peak efficiency may be slightly greater for BLDC or PMSM designs, but AC induction motors often achieve higher average efficiency. Another small trade-off is slightly lower starting torque than PMSM. The GM EV1 of the mid-1990s and most Teslas have employed AC Induction motors, despite skepticism about an EV revolution in some quarters.


 

Reluctance Motor: Think of "reluctance" as magnetic resistance: the degree to which an object opposes magnetic flux. A reluctance motor's stator features multiple electromagnet poles—concentrated windings that form highly localized north or south poles. In a switched reluctance motor (SRM), the rotor is made of soft magnetic material such as laminated silicon steel, with multiple projections designed to interact with the stator's poles. The various electromagnet poles are turned on and off in much the same way the field windings in a BLDC motor are. Using an unequal number of stator and rotor poles ensures some poles are aligned (for minimum reluctance), while others are directly in between opposite poles (maximum reluctance). Switching the stator polarity then pulls the rotor around at an asynchronous speed.


 

A synchronous reluctance motor (SynRM) doesn't rely on this imbalance in the rotor and stator poles. Rather, SynRM motors feature a more distributed winding fed with a sinusoidal AC current as in a PMSM design, with speed regulated by a variable-frequency drive, and an elaborately shaped rotor with voids shaped like magnetic flux lines to optimize reluctance.

The latest trend is to place small permanent magnets (often simpler ferrite ones) in some of these voids to take advantage of both magnetic and reluctance torque while minimizing cost and the back EMF (or counter-electromotive force) high-speed inefficiencies that permanent-magnet motors suffer.

Advantages include lower cost, simplicity, and high efficiency. Disadvantages can include noise and torque ripple (especially for switched reluctance motors). Toyota introduced an internal permanent-magnet synchronous reluctance motor (IPM SynRM) on the Prius, and Tesla now pairs one such motor with an AC induction motor on its Dual Motor models. Tesla also uses IPM SynRM as the single motor for its rear-drive models.


 

Electric motors may never sing like a small-block or a flat-plane crank Ferrari. But maybe, a decade or so from now, we'll regard the Tesla Plaid powertrain as fondly as we do those engines, even as industry leaders note that mainstream adoption faces hurdles, and every car lover will be able to describe in intimate detail what kind of motors it uses.
 

 

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GM, Ford Need Electric-Car Batteries, but Take Different Paths to Get Them

EV battery supply strategies weigh in-house cell manufacturing against supplier contracts, optimizing costs, scale, and supply-chain resilience for electric vehicles. Automakers like Tesla, GM-LG Chem, VW-Northvolt, and Ford balance gigafactories, joint ventures, and procurement risks.

 

Key Points

How automakers secure EV battery cells by balancing cost, scale, tech risk, and supply-chain control to meet demand.

✅ In-source cells via gigafactories, JVs, and proprietary chemistries

✅ Contract with LG Chem, Panasonic, CATL, SKI to diversify supply

✅ Manage costs, logistics, IP, and technology obsolescence risks

 

Auto makers, pumping billions of dollars into developing electric cars, are now facing a critical inflection point as they decide whether to get more involved with manufacturing the core batteries or buy them from others.

Batteries are one of an electric vehicle’s most expensive components, accounting for between a quarter and a third of the car’s value. Driving down their cost is key to profitability, executives say.

But whereas the internal combustion engine traditionally has been engineered and built by auto makers themselves, battery production for electric cars is dominated by Asian electronics and chemical firms, such as LG Chem Ltd. and Panasonic Corp. , and newcomers like China’s Contemporary Amperex Technology Co.

California, the U.S.’s largest car market, said last month it would end the sale of new gasoline- and diesel-powered passenger cars by 2035, putting pressure on the auto industry to accelerate its shift to electric vehicles in the coming years.

The race to lock in supplies for electric cars has auto makers taking varied paths, with growing Canada-U.S. collaboration across supply chains.

While most make the battery pack, a large metal enclosure often lining the bottom of the car, they also need the cells that are bundled together to form the core electricity storage.

Tesla several years ago opened its Gigafactory in Nevada to make batteries with Panasonic, which in the shared space would produce cells for the packs. The electric-car maker wanted to secure production specifically for its own models and lower manufacturing and logistics costs.

Now it is looking to in-source more of that production.

While Tesla will continue to buy cells from Panasonic and other suppliers, it is also working on its own cell technology and production capabilities, aiming for cheaper, more powerful batteries to ensure it can keep up with demand for its cars, said Chief Executive Elon Musk last month.

Following Tesla’s lead, General Motors Co. and South Korea’s LG Chem are putting $2.3 billion into a nearly 3-million-square-foot factory in Lordstown, Ohio, highlighting opportunities for Canada to capitalize on the U.S. EV pivot as supply chains evolve, which GM says will eventually produce enough battery cells to outfit hundreds of thousands of cars each year.

In Europe, Volkswagen AG is taking a similar path, investing about $1 billion in Swedish battery startup Northvolt AB, including some funding to build a cell-manufacturing plant in Salzgitter, Germany, as part of a joint venture, and in North America, EV assembly deals in Canada are putting it in the race as well.

Others like Ford Motor Co. and Daimler AG are steering clear of manufacturing their own cells, with executives saying they prefer contracting with specialized battery makers.

Supply-chain disruptions, including lithium shortages, have already challenged some new model launches and put projects at risk, auto makers say.

For instance, Ford and VW have agreements in place with SK Innovation to supply battery cells for future electric-vehicle models. The South Korean company is building a factory in Georgia to help meet this demand, but a fight over trade secrets has put the plant’s future in jeopardy and could disrupt new model launches, both auto makers have said in legal filings.

GM executives say the risk of relying on suppliers has pushed them to produce their own battery cells, albeit with LG Chem.

“We’ve got to be able to control our own destiny,” said Ken Morris, GM’s vice president of electric vehicles.

Bringing the manufacturing in house will give the company more control over the raw materials it purchases and the battery-cell chemistry, Mr. Morris said.

But establishing production, even in a joint venture, is a costly proposition, and it won’t necessarily ensure a timely supply of cells. There are also risks with making big investments on one battery technology because a breakthrough could make it obsolete.

Ford cites those factors in deciding against a similar investment for now.

The company sees the industry’s conventional model of contracting with independent suppliers to build parts as better suited to its battery-cell needs, Ford executive Hau Thai-Tang told analysts in August.

“We have the competitive tension with dealing with multiple suppliers, which allows us to drive the cost down,” Mr. Thai-Tang said, adding that the company expects to pay prices for cells in line with GM and Tesla.


Meanwhile, Ford can leave the capital-intensive task of conducting the research and setting up manufacturing facilities to the battery companies, Mr. Thai-Tang said.

Germany’s Daimler has tried both strategies.

The car company made its own lithium-ion cells through a subsidiary until 2015. But the capital required to scale up was better spent elsewhere, said Ola Källenius, Daimler’s chief executive officer.

The auto maker instead signed long-term supply agreements with Asian companies like Chinese battery-maker CATL and Farasis Energy (Ganzhou) Co., which Daimler invested in last year.

The company has said it is spending roughly $23.6 billion on purchase agreements but keeping its battery research in-house.

“Let’s rather put that capital into what we do best, cars,” Mr. Källenius said.

 

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Within A Decade, We Will All Be Driving Electric Cars

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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UK Electric cars will cost more if Sunak fails to strike Brexit deal

UK-EU EV Tariffs 2024 threaten a 10% levy under Brexit rules of origin, raising electric vehicle prices, straining battery supply chains, and risking a price war for manufacturers, consumers, and climate targets across automotive market.

 

Key Points

Tariffs from Brexit rules of origin imposing 10% duties on EVs, raising UK prices amid battery and supply chain gaps.

✅ 10% tariffs if rules of origin thresholds are unmet

✅ Price hikes on UK EVs, led by Tesla Model Y

✅ Battery supply gaps strain UK and EU manufacturers

 

Electric cars will cost British motorists an extra £6,000 if Rishi Sunak fails to strike a post-Brexit deal with the EU on tariffs, industry bosses have told The Independent.

UK manufacturers warned of a “devastating price war” on consumers, echoing UK concern over higher EV prices across the market – threatening both the electric vehicle (EV) market and the UK’s climate change commitments – if tariffs are enforced in January 2024.

In the latest major Brexit row, the Sunak government is pushing the European Commission to agree to delay the costly new rules, even as the UK readies for rising EV adoption across the economy, set to come in at the start of next year as part of Boris Johnson’s Brexit trade deal.

But Brussels has shown no sign it is willing to budge – even as Washington has announced a 100% tariff on Chinese-made EVs this year – leaving business leaders in despair about the impact of 10 per cent tariffs on exports on Britain’s car industry.

The tariffs would increase the price of a new Tesla Model Y – the UK’s most popular electric vehicle – by £6,000 or more, according to a new report by the Independent Commission on UK-EU Relations.

“For the sake of our economy and our planet, the government has a responsibility to get round the table with the EU, fix this and fix the raft of other issues with the Brexit deal,” said commission director Mike Buckley.

The new rules of origin agreed in the Brexit trade and cooperation agreement (TCA) require 45 per cent of an electric car’s value, as the age of electric cars accelerates, to originate in the UK or EU to qualify for trade without tariffs.

The British auto industry has warned the 2024 rules pose an “existential threat” to sales because of the lack of domestic batteries to meet the rules, even as EV adoption within the decade is widely expected to surge – pleading for a delay until 2027.

The VDA – the lobby group for Germany’s car industry – has also called for an “urgent” move to delay, warning that the rules create a “significant competitive disadvantage” for European carmarkers in relation to China, where tariffs on Chinese EVs are reshaping global trade, and other Asian competitors.

The new report by the Independent Commission on UK-EU Relations – backed by the manufacturers’ body Make UK and the British Chamber of Commerce – warns that the January tariffs will immediately push up costs and hit electric vehicle sales, despite UK EV inquiries surging during the fuel supply crisis in recent years.

 

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Wind and solar power generated more electricity in the EU last year than gas. Here's how

EU Renewable Energy Transition accelerates as solar and wind overtake gas, cutting coal reliance and boosting REPowerEU goals; falling electricity demand, hydro and nuclear recovery, and grid upgrades drive a cleaner, secure power mix.

 

Key Points

It is the EU's shift to solar and wind, surpassing gas and curbing coal to meet REPowerEU targets.

✅ Solar and wind supplied 22% of EU electricity in 2022.

✅ Gas fell behind; coal stayed near 16% with no major rebound.

✅ Demand fell; hydro and nuclear expected to recover in 2023.

 

European countries were forced to accelerate their renewable energy capacity after Russia's invasion of Ukraine sparked a global energy crisis amid a surge in global power demand that exceeded pre-pandemic levels. The EU’s REPowerEU plan aims to increase the share of renewables in final energy consumption overall to 45 percent by the end of the decade.

However, a new report by energy think tank Ember shows that the EU’s green energy transition is already making a significant difference. Solar and wind power generated more than a fifth (22 percent) of its electricity in 2022, pulling ahead of fossil gas (20 percent) for the first time, according to the European Electricity Review 2023.

Europe also managed to avoid resorting to emissions-intensive coal power for electricity generation as a consequence of the energy crisis, even as renewables to eclipse coal globally by mid-decade. Coal generated just 16 percent of the EU’s electricity last year, an increase of just 1.5 percentage points.

“Europe has avoided the worst of the energy crisis,” says Ember’s Head of Data Insights, Dave Jones. “The shocks of 2022 only caused a minor ripple in coal power and a huge wave of support for renewables. Any fears of a coal rebound are now dead.”

Ember’s analysis reveals that the EU faced a "triple crisis" in the electricity sector in 2022, as stunted hydro and nuclear output compounded the shock. "Just as Europe scrambled to cut ties with its biggest supplier of fossil gas, it faced the lowest levels of hydro and nuclear (power) in at least two decades, which created a deficit equal to 7 percent of Europe’s total electricity demand in 2022," the report says. A severe drought across Europe, French nuclear outages as well as the closure of German nuclear outlets were responsible for the drop.

 

Solar power shines through
However, the record surge in solar and wind power generation helped compensate for the nuclear and hydropower deficit. Solar power rose the fastest, growing by a record 24 percent last year which almost doubled its previous record, with wind growing by 8.6 percent.

Forty-one gigawatts of solar power capacity was added in 2022, almost 50 percent more than the year before. Ember says that 20 EU countries achieved solar records in 2022, with Germany, Spain, Poland, the Netherlands and France adding the most solar capacity.

The Netherlands and Greece generated more power from solar than coal for the first time. Greece is also predicted to reach its 2030 solar capacity target by the end of this year.


EU electricity demand falls
A significant drop in electricity use in 2022 also helped lessen the impact of Europe’s energy crisis. Demand fell by 7.9 percent in the last quarter of the year, despite the continent heading into winter. This was close to the 9.6 percent fall experienced when Europe was in Covid-19 lockdown in mid-2020.

"Mild weather was a deciding factor, but affordability pressures likely played a role, alongside energy efficiency improvements and citizens acting in solidarity to cut energy demand in a time of crisis," the report says.

A ‘coal comeback’ fails to materialize
The almost 8 percent fall in electricity demand in the last three months of 2022 was the main factor in the 9 percent fall in gas and coal generation during that time. However, Ember says that had France’s nuclear plants been operating at the same capacity as 2021, the EU’s fossil fuel generation would have fallen twice as fast in the last quarter of 2022.

The report says: "Coal power in the EU fell in all four of the final months of 2022, down 6 percent year-on-year. The 26 coal units placed on emergency standby for winter ran at an average of just 18 percent capacity. Despite importing 22 million tonnes of extra coal throughout 2022, the EU only used a third of it."

Gas generation was very similar compared to 2021, up just 0.8 percent. It made up 20 percent of the EU electricity mix in 2022, up from 19 percent the year before.


Fossil fuel generation set to fall in 2023
Ember says low-emissions sources like solar and wind power will continue to accelerate in 2023 and hydropower and French nuclear capacity will also recover. With electricity demand likely to continue to fall, it estimates that fossil fuel-generation "could plummet" by 20 percent in 2023.

Gas generation will fall the fastest, Ember predicts, as it will remain more expensive than coal over the next few years. "The large fall in gas generation means the power sector is likely to be the fastest falling segment of gas demand during 2023, helping to bring calm to European gas markets as Europe adjusts to life without Russian gas."

In order to stick to the 2015 Paris Agreement target of limiting global warming to no more than 1.5 degrees Celsius compared to pre-industrial levels, Ember says Europe must fully decarbonize its power system by the mid-2030s. Its modeling shows that this is possible without compromising the security of supply.

However, the report says "making this vision a reality will require investment above and beyond existing plans, as well as immediate action to address barriers to the expansion of clean energy infrastructure. Such a mobilization would boost the European economy, cement the EU’s position as a climate leader and send a vital international message that these challenges can be overcome."

 

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EV Boom Unexpectedly Benefits All Electricity Customers

Electric Vehicles Lower Electricity Rates by boosting demand, enabling fixed-cost recovery, and encouraging off-peak charging that balances the grid, reduces peaker plant use, and funds utility upgrades, with V2G poised to expand system benefits.

 

Key Points

By boosting off-peak demand and utility revenue, EVs spread fixed costs, cut peaker use, and stabilize the grid.

✅ Off-peak charging flattens load, reducing peaker plant reliance

✅ Higher kWh sales spread fixed grid costs across more users

✅ V2G can supply power during peaks and emergencies

 

Electric vehicles (EVs) are gaining popularity, and it appears they might be offering an unexpected benefit to everyone – including those who don't own an EV.  A new study by the non-profit research group Synapse Energy Economics suggests that the growth of electric cars is actually contributing to lower electricity rates for all ratepayers.


How EVs Contribute to Lower Rates

The study explains several factors driving this surprising trend:

  • Increased Electricity Demand: Electric vehicles require additional electricity, boosting rising electricity demand on the grid.
  • Optimal Charging Times: Many EV owners take advantage of off-peak charging discounts. Charging cars overnight, when electricity demand is typically low, helps to balance state power grids and reduce the need for expensive "peaker" power plants, which are only used to meet occasional spikes in demand.
  • Revenue for Utilities: Electric car charging can generate substantial revenue for utilities, potentially supporting investment in grid improvements, energy storage solutions and renewable energy projects that can bring long-term benefits to all customers.


A Significant Impact

The Synapse Energy Economics study analyzed data from 2011 to 2021 and concluded that EV drivers already contributed over $3 billion more to the grid than their associated costs. That, in turn, reduced monthly electricity bills for all customers.


Benefits May Grow

While the impact on electricity rates has been modest so far, experts anticipate the benefits to grow as EV adoption rates increase. Vehicle-to-grid (V2G) technology, which allows EVs to feed stored power back into the grid during emergencies or high-demand periods, has the potential to further optimize electricity usage patterns and create additional benefits for electric utilities and customers.


National Implications

The findings of this study offer hope to other regions seeking to increase electric vehicle adoption rates and support California's grid stability efforts, which is a key step towards reducing transportation-related greenhouse gas emissions. This news may alleviate concerns about potential electricity rate hikes driven by EV adoption and suggests that the benefits will be broadly shared.


More than Just Environmental Benefits

Electric vehicles bring a clear environmental advantage by reducing reliance on fossil fuels. However, this unexpected economic benefit could further strengthen the case for accelerating the adoption of electric vehicles. This news might encourage policymakers and the public to consider additional incentives or policies, including vehicle-to-building charging approaches, to promote the transition to this cleaner mode of transportation knowing it can yield benefits beyond environmental goals.

 

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Elon Musk says cheaper, more powerful electric vehicle batteries are 3 years off

Tesla Battery Day Innovations detail larger cylindrical EV cells with higher energy density, greater power, longer range, cobalt-free chemistry, automated manufacturing, battery recycling, and lower cost per kWh to enable an affordable electric car.

 

Key Points

Tesla Battery Day innovations are new EV cells and methods to cut costs, extend range, and scale production.

✅ Larger cylindrical cells: 5x energy, 6x power, 16% more range

✅ Automation and recycling to cut battery cost per kWh

✅ Near-zero cobalt chemistry, in-house cell factories worldwide

 

Elon Musk described a new generation of electric vehicle batteries that will be more powerful, longer lasting, and half as expensive as the company’s current cells at Tesla’s “Battery Day”.

Tesla’s new larger cylindrical cells will provide five times more energy, six times more power and 16% greater driving range, Musk said, adding that full production is about three years away.

“We do not have an affordable car. That’s something we will have in the future. But we’ve got to get the cost of batteries down,” Musk said.

To help reduce cost, Musk said Tesla planned to recycle battery cells at its Nevada “gigafactory,” while reducing cobalt – one of the most expensive battery materials – to virtually zero. It also plans to manufacture its own battery cells at several highly automated factories around the world.

The automaker plans to produce the new cells via a highly automated, continuous-motion assembly process, according to Drew Baglino, Tesla senior vice-president of powertrain and energy engineering, a contrast with GM and Ford battery strategies in the broader market today.

Speaking at the event, during which Musk outlined plans to cut costs and reiterated a huge future for Tesla's energy business during the presentation, the CEO acknowledged that Tesla does not have its new battery design and manufacturing process fully complete.

The automaker’s shares slipped as Musk forecast the change could take three years. Tesla has frequently missed production targets.

Tesla expects to eventually be able to build as many as 20m electric vehicles a year, aligning with within-a-decade EV adoption outlooks cited by analysts. This year, the entire auto industry expects to deliver 80m cars globally.

At the opening of the event, which drew over 270,000 online viewers, Musk walked on stage as about 240 shareholders – each sitting in a Tesla Model 3 in the company parking lot – honked their car horns in approval.

As automakers shift from horsepower to kilowatts to comply with stricter environmental regulations amid an age of electric cars that appears ahead of schedule, investors are looking for evidence that Tesla can increase its lead in electrification technology over legacy automakers who generate most of their sales and profits from combustion-engine vehicles.

While average electric vehicle prices have decreased in recent years thanks to changes in battery composition and evidence that they are better for the planet and household budgets, they are still more expensive than conventional cars, with the battery estimated to make up a quarter to a third of an electric vehicle’s cost.

Some researchers estimate that price parity, or the point at which electric vehicles are equal in value to internal combustion cars, is reached when battery packs cost $100 per kilowatt hour (kWh), a potential inflection point for mass adoption.

Tesla’s battery packs cost $156 per kWh in 2019, according to electric vehicle consulting firm Cairn Energy Research Advisors, with some studies noting that EVs save money over time for consumers, which would put the cost of a 90-kWh pack at around $14,000.

Tesla is also building its own cell manufacturing facility at its new factory in Germany in addition to the new plant in Fremont.

 

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