US Crosses the Electric-Car Tipping Point for Mass Adoption


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EV Tipping Point signals the S-curve shift to mainstream adoption as new car sales pass 5%, with the US joining Europe and China; charging infrastructure, costs, and supply align to accelerate electric car market penetration.

 

Key Points

The EV tipping point is when fully electric cars reach about 5% of new sales, triggering rapid S-curve adoption.

✅ 5% of new car sales marks start of mass adoption

✅ Follows S-curve seen in phones, LEDs, internet

✅ Barriers ease: charging, cost declines, model availability

 

Many people of a certain age can recall the first time they held a smartphone. The devices were weird and expensive and novel enough to draw a crowd at parties. Then, less than a decade later, it became unusual not to own one.

That same society-altering shift is happening now with electric vehicles, according to a Bloomberg analysis of adoption rates around the world. The US is the latest country to pass what’s become a critical EV tipping point: an EV inflection point when 5% of new car sales are powered only by electricity. This threshold signals the start of mass EV adoption, the period when technological preferences rapidly flip, according to the analysis.

For the past six months, the US joined Europe and China — collectively the three largest car markets — in moving beyond the 5% tipping point, as recent U.S. EV sales indicate. If the US follows the trend established by 18 countries that came before it, a quarter of new car sales could be electric by the end of 2025. That would be a year or two ahead of most major forecasts.

How Fast Is the Switch to Electric Cars?
19 countries have reached the 5% tipping point, and an earlier-than-expected shift is underway—then everything changes

Why is 5% so important? 
Most successful new technologies — electricity, televisions, mobile phones, the internet, even LED lightbulbs — follow an S-shaped adoption curve, with EVs going from zero to 2 million in five years according to market data. Sales move at a crawl in the early-adopter phase, then surprisingly quickly once things go mainstream. (The top of the S curve represents the last holdouts who refuse to give up their old flip phones.)

Electric cars inline tout
In the case of electric vehicles, 5% seems to be the point when early adopters are overtaken by mainstream demand. Before then, sales tend to be slow and unpredictable, and still behind gas cars in most markets. Afterward, rapidly accelerating demand ensues.

It makes sense that countries around the world would follow similar patterns of EV adoption. Most impediments are universal: there aren’t enough public chargers, grid capacity concerns linger, the cars are expensive and in limited supply, buyers don’t know much about them. Once the road has been paved for the first 5%, the masses soon follow.

Thus the adoption curve followed by South Korea starting in 2021 ends up looking a lot like the one taken by China in 2018, which is similar to Norway after its first 5% quarter in 2013. The next major car markets approaching the tipping point this year include Canada, Australia, and Spain, suggesting that within a decade many drivers could be in EVs worldwide. 

 

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Why a green recovery goes far deeper than wind energy

Scotland Green Recovery Strategy centers on renewable energy, onshore wind, energy efficiency, battery storage, hydrogen, and electric vehicles, alongside public transport and digital infrastructure, local manufacturing, and grid flexibility to decarbonize industry and communities.

 

Key Points

A plan to cut emissions by scaling renewables, efficiency, storage, and infrastructure for resilient, low-carbon growth.

✅ Prioritize energy efficiency retrofits in homes and workplaces

✅ Invest in battery storage, hydrogen, and EV charging networks

✅ Support local manufacturing and circular economy supply chains

 

THE “green recovery” joins the growing list of Covid-era political maxims, while green energy investment could drive recovery, suggesting a bright and environmentally sustainable post-pandemic future lies ahead.

The Prime Minister once again alluded to it recently when he expressed his ambition to see the UK become the “world leader in clean wind energy”. In his typically bombastic style, Boris Johnson declared that everything from our kettles to electric vehicles, with offshore wind energy central to that vision, will be powered by “breezes that blow around these islands” by the next decade.

These comments create a misleading impression about how we can achieve a green recovery, particularly as Covid-19 hit renewables and exposed systemic challenges. While wind turbines have a key role to play, they are just one part of a comprehensive solution requiring a far more in-depth focus on how and why we use energy. We must concentrate our efforts and resources on reducing our overall consumption and increasing energy capture.

This includes making significant energy efficiency improvements to the buildings where we live and work and grasping the lessons of lockdown, including proposals for a fossil fuel lockdown to accelerate climate action, to ensure we operate in a more effective and less environmentally-damaging fashion. Do we really want to return to a world where people commute daily half way across the country for work or fly to New York for a two-hour meeting?

Businesses will need to adapt to new ways of operating outwith the traditional nine-to-five working week to reduce congestion and pollution levels. To make this possible requires Government investment in critical areas such as public transport and digital infrastructure, alongside more pylons to strengthen the grid, across all parts of Scotland to decentralise the economy and enable more people to live and work outside the main cities.

A Government-supported green recovery must rest on making it financially viable for businesses to manufacture here to reduce our reliance on imported goods. This includes processing recycleable materials here rather than shipping them abroad. It also means using locally generated energy to support local jobs and industry. We miss a trick if Scotland simply becomes a power generator for the rest of the UK.

MOVING transport from fossil fuels to renewable fuels will require a step-change that also requires support across all levels. The increased use of electric vehicles and hydrogen fuel cells are all encouraging developments, but these will rely on investment in infrastructure throughout the country if we’re to achieve significant benefits to our environment and our economy.

This brings us to the role of onshore wind power; still the cheapest form of renewable energy, and a sector marked by wind growth despite Covid-19 around the world today. Repowering existing sites with newer and more efficient turbines will certainly increase capacity rapidly, but we must also invest into development projects that will further enhance the capacity and efficiency of existing equipment. This includes improving on the current practice of the National Grid paying operators to switch off wind turbines when excess electricity is produced and instead developing new and innovative means to capture this energy. Government-primed investment into battery storage could help ensure we achieve and further reduce our reliance on traditional, non-sustainable sources.

We need a level playing field so that all forms of energy are judged on their lifetime cost in terms of emissions as well as construction and decommissioning costs to ensure fiscal incentives are applied on a fairer basis.

Turning the maxim of a green recovery into reality will require more than extra wind turbines, and the UK's wind lessons underscore the importance of policy and scale. We need a significant investment and commitment from business and government to limit existing emissions and ensure we capture and use energy more efficiently.

Andy Drane is projects partner and head of renewables at law firm Davidson Chalmers Stewart.

 

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Solar and wind power curtailments are rising in California

CAISO Renewable Curtailments reflect grid balancing under transmission congestion and oversupply, reducing solar and wind output while leveraging WEIM trading, battery storage, and transmission expansion to integrate renewables and stabilize demand-supply.

 

Key Points

CAISO renewable curtailments are reductions in wind and solar output to balance grid amid congestion or oversupply.

✅ Driven mainly by transmission congestion, less by oversupply.

✅ Peaks in spring when demand is low and solar output is high.

✅ Mitigated by WEIM trades, new lines, and battery storage growth.

 

The California Independent System Operator (CAISO), the grid operator for most of the state, is increasingly curtailing solar- and wind-powered electricity generation, as reported in rising curtailments, as it balances supply and demand during the rapid growth of wind and solar power in California.

Grid operators must balance supply and demand to maintain a stable electric system as advances in solar and wind continue to scale. The output of wind and solar generators are reduced either through price signals or rarely, through an order to reduce output, during periods of:

Congestion, when power lines don’t have enough capacity to deliver available energy
Oversupply, when generation exceeds customer electricity demand

In CAISO, curtailment is largely a result of congestion. Congestion-related curtailments have increased significantly since 2019 because California's solar boom has been outpacing upgrades in transmission capacity.

In 2022, CAISO curtailed 2.4 million megawatthours (MWh) of utility-scale wind and solar output, a 63% increase from the amount of electricity curtailed in 2021. As of September, CAISO has curtailed more than 2.3 million MWh of wind and solar output so far this year, even as the US project pipeline is dominated by wind, solar, and batteries.

Solar accounts for almost all of the energy curtailed in CAISO—95% in 2022 and 94% in the first seven months of 2023. CAISO tends to curtail the most solar in the spring when electricity demand is relatively low (because moderate spring temperatures mean less demand for space heating or air conditioning) and solar output is relatively high, although wildfire smoke impacts can reduce available generation during fire season as well.

CAISO has increasingly curtailed renewable generation as renewable capacity has grown in California, and the state has even experienced a near-100% renewables moment on the grid in recent years. In 2014, a combined 9.0 gigawatts (GW) of wind and solar capacity had been built in California. As of July 2023, that number had grown to 17.6 GW. Developers plan to add another 3.0 GW by the end of 2024.

CAISO is exploring and implementing various solutions to its increasing curtailment of renewables, including:

The Western Energy Imbalance Market (WEIM) is a real-time market that allows participants outside of CAISO to buy and sell energy to balance demand and supply. In 2022, more than 10% of total possible curtailments were avoided by trading within the WEIM. A day ahead market is expected to be operational in Spring 2025.

CAISO is expanding transmission capacity to reduce congestion. CAISO’s 2022–23 Transmission Planning Process includes 45 transmission projects to accommodate load growth and a larger share of generation from renewable energy sources.

CAISO is promoting the development of flexible resources that can quickly respond to sudden increases and decreases in demand such as battery storage technologies that are rapidly becoming more affordable. California has 4.9 GW of battery storage, and developers plan to add another 7.6 GW by the end of 2024, according to our survey of recent and planned capacity changes. Renewable generators can charge these batteries with electricity that would otherwise have been curtailed.

 

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The Age of Electric Cars Is Dawning Ahead of Schedule

EV Price Parity is nearing reality in Europe as subsidies, falling battery costs, higher energy density, and expanding charging infrastructure push Tesla, Volkswagen, and Renault to compete under EU CO2 regulations and fleet targets.

 

Key Points

EV price parity means EVs match ICE cars on total ownership cost as subsidies fade and batteries get cheaper.

✅ Battery pack costs trending toward $100/kWh

✅ EU CO2 rules and incentives accelerate adoption

✅ Charging networks reduce range anxiety and TCO

 

An electric Volkswagen ID.3 for the same price as a Golf. A Tesla Model 3 that costs as much as a BMW 3 Series. A Renault Zoe electric subcompact whose monthly lease payment might equal a nice dinner for two in Paris.

As car sales collapsed in Europe because of the pandemic, one category grew rapidly: electric vehicles, a shift that some analysts say could put most drivers within a decade on battery power. One reason is that purchase prices in Europe are coming tantalizingly close to the prices for cars with gasoline or diesel engines.

At the moment this near parity is possible only with government subsidies that, depending on the country, can cut more than $10,000 from the final price. Carmakers are offering deals on electric cars to meet stricter European Union regulations on carbon dioxide emissions. In Germany, an electric Renault Zoe can be leased for 139 euros a month, or $164.

Electric vehicles are not yet as popular in the United States, largely because government incentives are less generous, but an emerging American EV boom could change that trajectory. Battery-powered cars account for about 2 percent of new car sales in America, while in Europe the market share is approaching 5 percent. Including hybrids, the share rises to nearly 9 percent in Europe, according to Matthias Schmidt, an independent analyst in Berlin.

As electric cars become more mainstream, the automobile industry is rapidly approaching the tipping point, an inflection point for the market, when, even without subsidies, it will be as cheap, and maybe cheaper, to own a plug-in vehicle than one that burns fossil fuels. The carmaker that reaches price parity first may be positioned to dominate the segment.

A few years ago, industry experts expected 2025 would be the turning point. But technology is advancing faster than expected, and could be poised for a quantum leap. Elon Musk is expected to announce a breakthrough at Tesla’s “Battery Day” event on Tuesday that would allow electric cars to travel significantly farther without adding weight.

The balance of power in the auto industry may depend on which carmaker, electronics company or start-up succeeds in squeezing the most power per pound into a battery, what’s known as energy density. A battery with high energy density is inherently cheaper because it requires fewer raw materials and less weight to deliver the same range.

“We’re seeing energy density increase faster than ever before,” said Milan Thakore, a senior research analyst at Wood Mackenzie, an energy consultant which recently pushed its prediction of the tipping point ahead by a year, to 2024.

Some industry experts are even more bullish. Hui Zhang, managing director in Germany of NIO, a Chinese electric carmaker with global ambitions, said he thought parity could be achieved in 2023.

Venkat Viswanathan, an associate professor at Carnegie Mellon University who closely follows the industry, is more cautious, though EV revolution skeptics argue the revolution is overstated. But he said: “We are already on a very accelerated timeline. If you asked anyone in 2010 whether we would have price parity by 2025, they would have said that was impossible.”

This transition will probably arrive at different times for different segments of the market. High-end electric vehicles are pretty close to parity already. The Tesla Model 3 and the gas-powered BMW 3 Series both sell for about $41,000 in the United States.

A Tesla may even be cheaper to own than a BMW because it never needs oil changes or new spark plugs and electricity is cheaper, per mile, than gasoline. Which car a customer chooses is more a matter of preference, particularly whether an owner is willing to trade the convenience of gas stations for charging points that take more time. (On the other hand, owners can also charge their Teslas at home.)

Consumers tend to focus on sticker prices, and it will take longer before unsubsidized electric cars cost as little to drive off a dealer’s lot as an economy car, even for shoppers weighing whether it’s the right time to buy an electric car now.

The race to build a better battery
The holy grail in the electric vehicle industry has been to push the cost of battery packs — the rechargeable system that stores energy — below $100 per kilowatt-hour, the standard measure of battery power. That is the point, more or less, at which propelling a vehicle with electricity will be as cheap as it is with gasoline.

Current battery packs cost around $150 to $200 per kilowatt-hour, depending on the technology. That means a battery pack costs around $20,000. But the price has dropped 80 percent since 2008, according to the United States Department of Energy.

All electric cars use lithium-ion batteries, but there are many variations on that basic chemistry, and intense competition to find the combination of materials that stores the most power for the least weight.

For traditional car companies, this is all very scary. Internal combustion engines have not changed fundamentally for decades, but battery technology is still wide open. There are even geopolitical implications. China is pouring resources into battery research, seeing the shift to electric power as a chance for companies like NIO to make their move on Europe and someday, American, markets. In less than a decade, the Chinese battery maker CATL has become one of the world’s biggest manufacturers.


Everyone is trying to catch Tesla
The California company has been selling electric cars since 2008 and can draw on years of data to calculate how far it can safely push a battery’s performance without causing overheating or excessive wear. That knowledge allows Tesla to offer better range than competitors who have to be more careful. Tesla’s four models are the only widely available electric cars that can go more than 300 miles on a charge, according to Kelley Blue Book.

On Tuesday, Mr. Musk could unveil a technology offering 50 percent more storage per pound at lower cost, according to analysts at the Swiss bank UBS. If so, competitors could recede even further in the rearview mirror.

“The traditional car industry is still behind,” said Peter Carlsson, who ran Tesla’s supplier network in the company’s early days and is now chief executive of Northvolt, a new Swedish company that has contracts to manufacture batteries for Volkswagen and BMW.

“But,” Mr. Carlsson said, “there is a massive amount of resources going into the race to beat Tesla. A number, not all, of the big carmakers are going to catch up.”

The traditional carmakers’ best hope to avoid oblivion will be to exploit their expertise in supply chains and mass production to churn out economical electrical cars by the millions.

A key test of the traditional automakers’ ability to survive will be Volkswagen’s new battery-powered ID.3, which will start at under €30,000, or $35,000, after subsidies and is arriving at European dealerships now. By using its global manufacturing and sales network, Volkswagen hopes to sell electric vehicles by the millions within a few years. It plans to begin selling the ID.4, an electric sport utility vehicle, in the United States next year. (ID stands for “intelligent design.”)

But there is a steep learning curve.

“We have been mass-producing internal combustion vehicles since Henry Ford. We don’t have that for battery vehicles. It’s a very new technology,” said Jürgen Fleischer, a professor at the Karlsruhe Institute of Technology in southwestern Germany whose research focuses on battery manufacturing. “The question will be how fast can we can get through this learning curve?”

It’s not just about the batteries
Peter Rawlinson, who led design of the Tesla Model S and is now chief executive of the electric car start-up Lucid, likes to wow audiences by showing up at events dragging a rolling carry-on bag containing the company’s supercompact drive unit. Electric motor, transmission and differential in one, the unit saves space and, along with hundreds of other weight-saving tweaks, will allow the company’s Lucid Air luxury car — which the company unveiled on Sept. 9 — to travel more than 400 miles on a charge, Mr. Rawlinson said.

His point is that designers should focus on things like aerodynamic drag and weight to avoid the need for big, expensive batteries in the first place. “There is kind of a myopia,” Mr. Rawlinson said. “Everyone is talking about batteries. It’s the whole system.”

“We have been mass-producing internal combustion vehicles since Henry Ford,” said Jürgen Fleischer, a professor at the Karlsruhe Institute of Technology. “We don’t have that for battery vehicles.”

A charger on every corner would help
When Jana Höffner bought an electric Renault Zoe in 2013, driving anywhere outside her home in Stuttgart was an adventure. Charging stations were rare, and didn’t always work. Ms. Höffner drove her Zoe to places like Norway or Sicily just to see if she could make it without having to call for a tow.

Ms. Höffner, who works in online communication for the state of Baden-Württemberg, has since traded up to a Tesla Model 3 equipped with software that guides her to the company’s own network of chargers, which can fill the battery to 80 percent capacity in about half an hour. She sounds almost nostalgic when she remembers how hard it was to recharge back in the electric-vehicle stone age.

“Now, it’s boring,” Ms. Höffner said. “You say where you want to go and the car takes care of the rest.”

The European Union has nearly 200,000 chargers, far short of the three million that will be needed when electric cars become ubiquitous, according to Transport & Environment, an advocacy group. The United States remains far behind, with less than half as many as Europe, even as charging networks jostle under federal electrification efforts.

But the European network is already dense enough that owning and charging an electric car is “no problem,” said Ms. Höffner, who can’t charge at home and depends on public infrastructure.
 

 

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NREL’s Electric Vehicle Infrastructure Projection Tool Helps Utilities, Agencies, and Researchers Predict Hour-by-Hour Impact of Charging on the Grid

EVI-Pro Lite EV Load Forecasting helps utilities model EV charging infrastructure, grid load shapes, and resilient energy systems, factoring home, workplace, and public charging behavior to inform planning, capacity upgrades, and flexible demand strategies.

 

Key Points

A NREL tool projecting EV charging demand and load shapes to help utilities plan the grid and right-size infrastructure.

✅ Visualizes weekday/weekend EV load by charger type.

✅ Tests home, workplace, and public charging access scenarios.

✅ Supports utility planning, demand flexibility, and capacity upgrades.

 

As electric vehicles (EVs) continue to grow in popularity, utilities and community planners are increasingly focused on building resilient energy systems that can support the added electric load from EV charging, including a possible EV-driven demand increase across the grid.

But forecasting the best ways to adapt to increased EV charging can be a difficult task as EV adoption will challenge state power grids in diverse ways. Planners need to consider when consumers charge, how fast they charge, and where they charge, among other factors.

To support that effort, researchers at the National Renewable Energy Laboratory (NREL) have expanded the Electric Vehicle Infrastructure Projection (EVI-Pro) Lite tool with more analytic capabilities. EVI-Pro Lite is a simplified version of EVI-Pro, the more complex, original version of the tool developed by NREL and the California Energy Commission to inform detailed infrastructure requirements to support a growing EV fleet in California, where EVs bolster grid stability through coordinated planning.

EVI-Pro Lite’s estimated weekday electric load by charger type for El Paso, Texas, assuming a fleet of 10,000 plug-in electric vehicles, an average of 35 daily miles traveled, and 50% access to home charging, among other variables, as well as potential roles for vehicle-to-grid power in future scenarios. The order of the legend items matches the order of the series stacked in the chart.

Previously, the tool was limited to letting users estimate how many chargers and what kind of chargers a city, region, or state may need to support an influx of EVs. In the added online application, those same users can take it a step further to predict how that added EV charging will impact electricity demand, or load shapes, in their area at any given time and inform grid coordination for EV flexibility strategies.

“EV charging is going to look different across the country, depending on the prevalence of EVs, access to home charging, and the kind of chargers most used,” said Eric Wood, an NREL researcher who led model development. “Our expansion gives stakeholders—especially small- to medium-size electric utilities and co-ops—an easy way to analyze key factors for developing a flexible energy strategy that can respond to what’s happening on the ground.”

Tools to forecast EV loads have existed for some time, but Wood said that EVI-Pro Lite appeals to a wider audience, including planners tracking EVs' impact on utilities in many markets. The tool is a user-friendly, free online application that displays a clear graphic of daily projected electric loads from EV charging for regions across the country.

After selecting a U.S. metropolitan area and entering the number of EVs in the light-duty fleet, users can change a range of variables to see how they affect electricity demand on a typical weekday or weekend. Reducing access to home charging by half, for example, results in higher electric loads earlier in the day, although energy storage and mobile charging can help moderate peaks in some cases. That is because under such a scenario, EV owners might rely more on public or workplace charging instead of plugging in at home later in the evening or at night.

“Our goal with the lite version of EVI-Pro is to make estimating loads across thousands of scenarios fast and intuitive,” Wood said. “And if utilities or stakeholders want to take that analysis even deeper, our team at NREL can fill that gap through partnership agreements, too. The full version of EVI-Pro can be tailored to develop detailed studies for individual planners, agencies, or utilities.”

 

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The U.S. passed a historic climate deal this year - Recap

Inflation Reduction Act climate provisions accelerate clean energy, EV tax credits, methane fee, hydrogen incentives, and a green bank, cutting carbon emissions, boosting manufacturing, and advancing environmental justice and net-zero goals through 2030.

 

Key Points

They are U.S. policies funding clean energy, EV credits, a methane fee, hydrogen, and justice programs to cut emissions.

✅ Up to $7,500 new and $4,000 used EV tax credits with income limits

✅ First federal methane fee to curb oil and gas emissions

✅ $60B for clean energy manufacturing and environmental justice

 

The Biden administration this year signed a historic climate and tax deal that will funnel billions of dollars into programs designed to speed the country’s clean energy transition, with ways to tap new funding available to households and businesses, and battle climate change.

As the U.S. this year grappled with climate-related disasters from Hurricane Ian in Florida to the Mosquito Fire in California, the Inflation Reduction Act, which contains $369 billion in climate provisions, was a monumental development to mitigate the effects of climate change across the country, with investment incentives viewed as essential to accelerating clean electricity this decade. 

The bill, which President Joe Biden signed into law in August, is the most aggressive climate investment ever taken by Congress and is expected to slash the country’s planet-warming carbon emissions by about 40% this decade and move the country toward a net-zero economy by 2050, aligning with a path to net-zero electricity many analyses lay out.

The IRA’s provisions have major implications for clean energy and manufacturing businesses, climate startups and consumers in the coming years. As 2022 comes to a close, here’s a look back at the key elements in the legislation that climate and clean energy advocates will be monitoring in 2023.


Incentives for electric vehicles
The deal offers a federal tax credit worth up to $7,500 to households that buy new electric vehicles, as well as a used EV credit worth up to $4,000 for vehicles that are at least two years old. Starting Jan. 1, people making $150,000 a year or less, or $300,000 for joint filers, are eligible for the new car credit, while people making $75,000 or less, or $150,000 for joint filers, are eligible for the used car credit.

Despite a rise in EV sales in recent years, the transportation sector is still the country’s largest source of greenhouse gas emissions, with the lack of convenient charging stations being one of the barriers to expansion. The Biden administration has set a goal of 50% electric vehicle sales by 2030, as Canada pursues EV sales regulations alongside broader oil and gas emissions limits.

The IRA limits EV tax credits to vehicles assembled in North America and is intended to wean the U.S. off battery materials from China, which accounts for 70% of the global supply of battery cells for the vehicles. An additional $1 billion in the deal will provide funding for zero-emissions school buses, heavy-duty trucks and public transit buses.

Stephanie Searle, a program director at the nonprofit International Council on Clean Transportation, said the combination of the IRA tax credits and state policies like New York's Green New Deal will bolster EV sales. The agency projects that roughly 50% or more of passenger cars, SUVs and pickups sold in 2030 will be electric. For electric trucks and buses, the number will be 40% or higher, the group said.

In the upcoming year, Searle said the agency is monitoring the Environmental Protection Agency’s plans to propose new greenhouse gas emissions standards for heavy-duty vehicles starting in the 2027 model year.

“With the IRA already promoting electric vehicles, EPA can and should be bold in setting ambitious standards for cars and trucks,” Searle said. “This is one of the Biden administration’s last chances for strong climate action within this term and they should make good use of it.”


Taking aim at methane gas emissions
The package imposes a tax on energy producers that exceed a certain level of methane gas emissions. Polluters pay a penalty of $900 per metric ton of methane emissions emitted in 2024 that surpass federal limits, increasing to $1,500 per metric ton in 2026.

It’s the first time the federal government has imposed a fee on the emission of any greenhouse gas. Global methane emissions are the second-biggest contributor to climate change after carbon dioxide and come primarily from oil and gas extraction, landfills and wastewater and livestock farming.

Methane is a key component of natural gas and is 84 times more potent than carbon dioxide, but doesn’t last as long in the atmosphere. Scientists have contended that limiting methane is needed to avoid the worst consequences of climate change. 

Robert Kleinberg, a researcher at Columbia University’s Center on Global Energy Policy, said the methane emitted by the oil and gas industry each year would be worth about $2 billion if it was instead used to generate electricity or heat homes.

“Reducing methane emissions is the fastest way to moderate climate change. Congress recognized this in passing the IRA,” Kleinberg said. “The methane fee is a draconian tax on methane emitted by the oil and gas industry in 2024 and beyond.”

In addition to the IRA provision on methane, the Biden Interior Department this year proposed rules to curb methane leaks from drilling, which it said will generate $39.8 million a year in royalties for the U.S. and prevent billions of cubic feet of gas from being wasted through venting, flaring and leaks. 


Boosting clean energy manufacturing
The bill provides $60 billion for clean energy manufacturing, including $30 billion for production tax credits to accelerate domestic manufacturing of solar panels, wind turbines, batteries and critical minerals processing, and a $10 billion investment tax credit to manufacturing facilities that are building EVs and clean energy technology, reinforcing the view that decarbonization is irreversible among policymakers.

There’s also $27 billion going toward a green bank called the Greenhouse Gas Reduction Fund, which will provide funding to deploy clean energy across the country, particularly in overburdened communities, and guide utility carbon-free electricity investments at scale. And the bill has a hydrogen production tax credit, which provides hydrogen producers with a credit based on the climate attributes of their production methods.

Emily Kent, the U.S. director of zero-carbon fuels at the Clean Air Task Force, a global climate nonprofit, said the bill’s support for low-emissions hydrogen is particularly notable since it could address sectors like heavy transportation and heavy industry, which are hard to decarbonize.

“U.S. climate policy has taken a major step forward on zero-carbon fuels in the U.S. and globally this year,” Kent said. “We look forward to seeing the impacts of these policies realized as the hydrogen tax credit, along with the hydrogen hubs program, accelerate progress toward creating a global market for zero-carbon fuels.”

The clean energy manufacturing provisions in the IRA will also have major implications for startups in the climate space and the big venture capital firms that back them. Carmichael Roberts, head of investment at Breakthrough Energy Ventures, has said the climate initiatives under the IRA will give private investors more confidence in the climate space and could even lead to the creation of up to 1,000 companies.

“Everybody wants to be part of this,” Roberts told CNBC following the passage of the bill in August. Even before the measure passed, “there was already a big groundswell around climate,” he said.


Investing in communities burdened by pollution
The legislation invests more than $60 billion to address the unequal effects of pollution and climate change on low-income communities and communities of color. The funding includes grants for zero-emissions technology and vehicles, and will help clean up Superfund sites, improve air quality monitoring capacity, and provide money to community-led initiatives through Environmental and Climate Justice block grants.

Research published in the journal Environmental Science and Technology Letters found that communities of color are systematically exposed to higher levels of air pollution than white communities due to redlining, a federal housing discrimination practice. Black Americans are also 75% more likely than white Americans to live near hazardous waste facilities and are three times more likely to die from exposure to pollutants, according to the Clean Air Task Force.

Biden signed an executive order after taking office aimed to prioritize environmental justice and help mitigate pollution in marginalized communities. The administration established the Justice40 Initiative to deliver 40% of the benefits from federal investments in climate change and clean energy to disadvantaged communities. 

More recently, the EPA in September launched an office focused on supporting and delivering grant money from the IRA to these communities.


Cutting ag emissions
The deal includes $20 billion for programs to slash emissions from the agriculture sector, which accounts for more than 10% of U.S. emissions, according to EPA estimates.

The president has pledged to reduce emissions from the agriculture industry in half by 2030. The IRA funds grants for agricultural conservation practices that directly improve soil carbon, as well as projects that help protect forests prone to wildfires.

Separately, this year the U.S. Department of Agriculture announced it will spend $1 billion on projects for farmers, ranchers and forest landowners to use practices that curb emissions or capture and store carbon. That program is focusing on projects for conservation practices including no-till, cover crops and rotational grazing.

Research suggests that removing carbon already in the atmosphere and replenishing soil worldwide could result in a 10% carbon drawdown.

 

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Can the UK grid cope with the extra demand from electric cars?

UK EV Grid Capacity leverages smart charging, V2G, renewable energy, and interconnectors to manage peak demand as adoption grows, with National Grid upgrades, rapid chargers, and efficiency gains enabling a reliable, scalable charging infrastructure nationwide.

 

Key Points

UK EV grid capacity is the power network's readiness to meet EV demand using smart charging, V2G, and upgrades.

✅ Smart charging shifts load to off-peak, cheaper renewable hours

✅ V2G enables EVs to supply power and balance peak demand

✅ National Grid upgrades and interconnectors expand capacity

 

The surge of electric vehicles (EVs) on our roads raises a crucial question: can the UK's electricity grid handle the additional demand? While this is a valid concern, it's important to understand the gradual nature of EV adoption, ongoing grid preparations, and innovative solutions being developed.

A Gradual Shift, Not an Overnight Leap

Firstly, let's dispel the myth of an overnight transition. EV adoption will unfold progressively, driven by factors like affordability and the growing availability of used models. The government's ZEV mandate outlines a clear trajectory, with a gradual rise from 22% EV sales in 2024 to 80% by 2030. This measured approach allows for strategic grid improvements to accommodate the increasing demand.

Preparing the Grid for the Future

Grid preparations for the EV revolution have been underway for years. Collaborations between the government, electricity providers, service stations, and charging point developers are ensuring grid coordination across the system. Renewable energy sources like offshore wind farms, combined with new nuclear power and international interconnections, are planned to meet the anticipated 120 terawatt-hour increase in demand. Additionally, improvements in energy efficiency have reduced overall electricity consumption, creating further capacity.

Addressing Peak Demand Challenges

While millions of EVs charging simultaneously might seem like they could challenge power grids, solutions are being implemented to manage peak demand:

1. Smart Charging: This technology allows EVs to charge during off-peak hours when renewable electricity is abundant and cheaper. This not only benefits the grid but also saves owners money. The UK government's EV Smart Charge Points Regulations ensure all new chargers have this functionality.

2. Vehicle-to-Grid (V2G) Technology: This futuristic concept transforms EVs into energy storage units, often described as capacity on wheels, allowing owners to sell their unused battery power back to the grid during peak times. This not only generates income for owners but also helps balance the grid and integrate more renewable energy.

3. Sufficient Grid Capacity: Despite concerns, the grid currently has ample capacity. The highest peak demand in recent years (62GW in 2002) has actually decreased by 16% due to energy efficiency improvements. Even with widespread EV adoption, the expected 10% increase in demand remains well within the grid's capabilities with proper management in place.

National Grid's Commitment:

National Grid and other electric utilities are actively involved in upgrading and expanding the grid to accommodate the clean energy transition. This includes collaborating with distribution networks, government agencies, and industry partners to ensure the necessary infrastructure (wires and connections) is in place for a decarbonized transport network.

Charging Infrastructure: Addressing Anxiety

The existing national grid infrastructure, with its proximity to roads and train networks, provides a significant advantage for EV charging point deployment. National Grid Electricity Distribution is already working on innovative projects to install required infrastructure, such as:

  • Bringing electricity networks closer to motorway service areas for faster and easier connection.
  • Leading projects like the Electric Boulevard (inductive charging) and Electric Nation (V2G charging) to showcase innovative solutions.
  • Participating in the Take Charge project, exploring new ways to facilitate rapid EV charging infrastructure growth.

Government Initiatives:

The UK government's Rapid Charging Fund aims to roll out high-powered, open-access charge points across England, while the Local EV Infrastructure Fund supports local authorities in providing charging solutions for residents without off-street parking, including mobile chargers for added flexibility.

While the rise of EVs presents new challenges, the UK is actively preparing its grid and infrastructure to ensure a smooth transition. With gradual adoption, ongoing preparations, and innovative solutions, the answer to the question Will electric vehicles crash the grid? is a resounding yes. The future of clean transportation is bright, and the grid is ready to power it forward.

 

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