Carbon Engineering’s Tech Will Suck Carbon From the Sky

It’s not enough to slash greenhouse gas emissions. Experts say we need direct-air capture of atmospheric carbon

6 min read
An artist rendering of Carbon Engineering’s new site in West Texas

Carbon Engineering's new site in West Texas (shown here in an artist's rendering) will directly capture 1 million metric tons of CO 2 per year and pump it underground.

Photo-illustration: Carbon Engineering

West Texas is a hydrocarbon hot spot, with thousands of wells pumping millions of barrels of oil and billions of cubic feet of natural gas from the Permian Basin. When burned, all that oil and gas will release vast amounts of greenhouse gases into the atmosphere.

A new facility there aims to do the opposite. Rows of giant fans spread across a flat, arid field will pull carbon dioxide from the air and then pump it deep underground. When completed, the project could capture 1 million metric tons of carbon dioxide per year, doing the air-scrubbing work of some 40 million trees.

Canadian firm Carbon Engineering is designing and building this “direct-air capture" facility with 1PointFive, a joint venture between a subsidiary of Occidental Petroleum Corp. and the private equity firm Rusheen Capital Management. Carbon Engineering will devote much of 2021 to front-end engineering and design work in Texas, with construction slated to start the following year and operations by 2024, the partners say. The project is the biggest of its kind in the world and will likely cost hundreds of millions of dollars to develop.

Carbon Engineering is among a handful of companies with major direct-air capture developments underway this year. Zurich-based Climeworks is expanding across Europe, while Dublin's Silicon Kingdom Holdings plans to install its first CO2-breathing “mechanical tree" in Arizona. Global Thermostat, headquartered in New York City, has three new projects in the works. All the companies say they intend to curb the high cost of capturing carbon by optimizing technology, reducing energy use, and scaling up operations.

The projects arrive as many climate experts warn that current measures to reduce emissions—such as adopting renewable energy and electrifying transportation—are no longer sufficient to avert catastrophe. To limit global warming to 1.5 °C, the world must also use “negative-emission technologies," according to the United Nations Intergovernmental Panel on Climate Change's 2018 report.

Global CO2 emissions from fossil fuels reached 33 billion metric tons in 2019. Existing direct-air capture projects would eliminate a tiny fraction of that total, and not all of the captured CO2 is expected to be permanently sequestered. Some of it will likely return to the atmosphere when used in synthetic fuels or other products. Companies say the goal is to continuously capture and “recycle" the greenhouse gas to avoid creating new emissions, while also generating revenue that can fund the technology.

Carbon removal can help compensate for sectors that are difficult to decarbonize, such as agriculture, cement making, and aviation, says Jennifer Wilcox, a chemical engineer and senior fellow at the World Resources Institute. “The climate models are saying clearly that if we don't do carbon removal in addition to avoiding emissions, we will not reach our climate goals."

Carbon Engineering's plant in Texas will use banks of fans, each about 8.5 meters in diameter, to draw air into a large structure called a contactor. The air is pushed through a plastic mesh coated with a potassium hydroxide solution, which binds with the carbon dioxide. A series of chemical processes concentrate and compress the CO2 into tiny white pellets, which are then heated to 900 °C to release the carbon dioxide as a gas. Steve Oldham, CEO of Carbon Engineering, likens the plant to a refinery that produces chemicals at an industrial scale. “That's the type of capability we're going to need, to make a material impact on climate change," he says.

Carbon Engineering is expanding its British Columbia pilot plant to capture 4 metric tons of carbon dioxide per day.Carbon Engineering is expanding its British Columbia pilot plant to capture 4 metric tons of carbon dioxide per day.Photo: Carbon Engineering

At its pilot plant in British Columbia, Carbon Engineering combines the pure CO2 with hydrogen to produce synthetic crude oil. The facility can capture 1 metric ton of carbon dioxide per day; by comparison, the Texas operation is expected to capture over 2,700 metric tons daily. At the larger site, the captured gas will be injected into older oil wells, both sequestering the CO2 underground and forcing up any remaining oil. In addition to the work in Texas, the company is scaling up its Canadian operations, Oldham says. In 2021, it will open a new business and advanced-development center and expand research operations; the new facility will capture up to 4 metric tons of CO2 per day from the air.

Other direct-air capture firms are opting for a modular approach. Climeworks' carbon collectors can be stacked to build facilities of any size. The system also uses fans, but the air runs over a solid filter material. Once saturated with CO2, the filter is heated to between 80 and 100 °C, releasing highly concentrated CO2 gas, which can be used in various ways.

For example, at Climeworks' pilot site in Iceland—which is powered by geothermal energy—the company's partner Carbfix reacts the concentrated CO2 with basaltic rock to lock it below ground. The site is now being expanded to capture 4,000 metric tons of carbon dioxide a year; it should be operational in the first half of 2021, says Daniel Egger, head of marketing and sales for Climeworks. The CO2 could also be used to make a more sustainable form of jet fuel; Climeworks is seeking financing for two CO2-to-fuel projects in Norway and the Netherlands.

imgSwiss firm Climeworks' cofounders and co-CEOs Christoph Gebald (left) and Jan Wurzbacher (right) plan to use captured CO 2 from the company's stackable collectors to make sustainable jet fuel.Photo: Julia Dunlop/Climeworks

Meanwhile, the company will continue working with the e-commerce platforms Stripe and Shopify. To cancel their carbon footprints, the two companies have committed to purchasing carbon credits from Climeworks, reflecting the amount of CO2 that Climeworks has removed from the air. Major tech firms in general are investing in carbon-reducing schemes to help meet their corporate environmental goals. Microsoft has pledged to be carbon negative by 2030 and to spend $1 billion to accelerate the development of technology for carbon reduction and removal.

“For all these companies that have targets to bring their emissions to 'net zero,' technologies like ours are absolutely needed," Egger says.

Global energy giants are also backing direct-air capture to undo some of the damage caused by their products and operations. In September, for instance, ExxonMobil expanded an agreement with Global Thermostat to help scale the startup's technology. Global Thermostat's machines are the size of a shipping container and capture CO2 using amine-based adsorbents on honeycombed ceramic cubes, akin to a car's catalytic converter.

Cofounder Peter Eisenberger, a professor of Earth and environmental science at Columbia University, says Global Thermostat's goal is to remove billions of tons of carbon dioxide every year by licensing its technology to other firms. He believes the world will have to remove 50 billion metric tons of carbon dioxide over the next two decades to avoid catastrophic climate shifts. In 2021, the company will add three pilot projects, including a 2,000-metric-ton plant in Chile to produce synthetic fuels, as well as facilities in Latin America and the Middle East that will provide CO2 for bubbly beverages and water desalination, respectively.

An artist\u2019s rendering shows Silicon Kingdom Holdings\u2019 CO2 -absorbing \u201cmechanical trees.\u201dThis artist's rendering shows Silicon Kingdom Holdings' CO 2 -absorbing “mechanical trees." A dozen trees can capture 1 metric ton of carbon dioxide a day.Photo-illustration: Silicon Kingdom Holdings

Unlike its peers, Silicon Kingdom Holdings uses a passive system to draw in air. Klaus Lackner, a professor at Arizona State University, developed the company's mechanical-tree technology. Each tree will have stacks of 150 disks coated in a carbon-adsorbing material; as wind blows over the disks, they trap carbon on their surfaces. The disks are then lowered into a bottom chamber, where an “energy-efficient process" releases the CO2 from the sorbent, says Pól Ó Móráin, CEO of Silicon Kingdom Holdings. The high-purity gas could be sequestered or reused in beverages, cement, fertilizer, or other industrial products. The startup plans to build and operate the first commercial-scale 2.5-meter-tall tree near the ASU campus in Tempe in 2021.

Ó Móráin says a dozen trees can capture 1 metric ton of carbon dioxide daily. The goal is to install carbon farms worldwide, each with up to 120,000 mechanical trees.

Wilcox of the World Resources Institute says there's “no clear winner" among these emerging technologies for capturing carbon. They're distinct from one another, she notes. “I think we need them all."

An abridged version of this article appears in the January 2021 print issue as “The Carbon-Sucking Fans of West Texas."

The Conversation (0)

Convincing Consumers To Buy EVs

How range, affordability, reliability, and behavioral changes figure into purchase decisions

15 min read
A collage showing four current electric vehicles. The EV's shown are: Mercedes-EQE SUV, Hyundai IONIQ 5, CHEVROLET EQUINOX EV 3LT, and Lucid Air.

Four EVs, from economy to luxury, currently for sale in the U.S. From top left clock wise: The Mercedes-EQE SUV, Hyundai IONIQ 5, CHEVROLET EQUINOX EV 3LT, and Lucid Air.

Credits: Mercedes-Benz Group AG; Hyundai Motor America; Chevrolet; Lucid.

With the combination of requiring all new light-duty vehicles sold in New York State be zero-emission by 2035, investments in electric vehicles charging stations, and state and federal EV rebates, “you’re going to see that you have no more excuses” for not buying an EV, according to New York Governor Kathy Hochul.

The EV Transition Explained

This is the tenth in a series of articles exploring the major technological and social challenges that must be addressed as we move from vehicles with internal-combustion engines to electric vehicles at scale. In reviewing each article, readers should bear in mind Nobel Prize–winning physicist Richard Feynman’s admonition: “For a successful technology, reality must take precedence over public relations, for Nature cannot be fooled.”

Perhaps, but getting the vast majority of 111 million US households who own one or more light duty internal combustion vehicles to switch to EVs is going to take time. Even if interest in purchasing an EV is increasing, close to 70 percent of Americans are still leaning towards buying an ICE vehicles as their next purchase. In the UK, only 14 percent of drivers plan to purchase an EV as their next car.

Even when there is an expressed interest in purchasing a battery electric or hybrid vehicle, it often did not turn into an actual purchase. A 2022 CarGurus survey found that 35 percent of new car buyers expressed an interest in purchasing a hybrid, but only 13 percent eventually did. Similarly, 22 percent expressed interest in a battery electric vehicle (BEV), but only 5 percent bought one.

Each potential EV buyer assesses their individual needs against the benefits and risks an EV offers. However, until mainstream public confidence reaches the point where the perceived combination of risks of a battery electric vehicle purchase (range, affordability, reliability and behavioral changes) match that of an ICE vehicle, then EV purchases are going to be the exception rather than the norm.

How much range is enough?

Studies differ about how far drivers want to be able to go between charges. One Bloombergstudy found 341 miles was the average range desired, while Deloitte Consulting’s2022 Global Automotive Consumer Study found U.S. consumers want to be able to travel 518 miles on a fully charged battery in a BEV that costs $50,000 or less.

Arguments over how much range is needed are contentious. There are some who argue that because 95 percent of American car trips are 30 miles or less, a battery range of 250 miles or less is all that is needed. They also point out that this would reduce the price of the EV, since batteries account for about 30 percent of an EVs total cost. In addition, using smaller batteries would allow more EVs to be built, and potentially relieve pressure on the battery supply chain. If longer trips are needed, well, “bring some patience and enjoy the charging experience” seems to be the general advice.

While perhaps logical, these arguments are not going to influence typical buying decisions much. The first question potential EV buyers are going to ask themselves is, “Am I going to be paying more for a compromised version of mobility?” says Alexander Edwards, President of Strategic Vision, a research-based consultancy that aims to understand human behavior and decision-making.


 Driver\u2019s side view of 2024 Chevrolet Equinox EV 3LT in Riptide Blue driving down a roadDriver’s side view of 2024 Chevrolet Equinox EV 3LT.Chevrolet

Edwards explains potential customers do not have range anxietyper se: If they believe they require a vehicle that must go 400 miles before stopping, “even if once a month, once a quarter, or once a year,” all vehicles that cannot meet that criteria will be excluded from their buying decision. Range anxiety, therefore, is more a concern for EV owners. Edwards points out that regarding range, most BEV owners own at least one ICE vehicle to meet their long-distance driving needs.

What exactly is the “range” of a BEV is itself becoming a heated point of contention. While ICE vehicles driving ranges are affected by weather and driving conditions, the effects are well-understood after decades of experience. This experience is lacking with non-EV owners. Extreme heat and cold negatively affect EV battery ranges and charging time, as do driving speeds and terrain.

Peter Rawlinson serves as the Chief Executive Officer and Chief Technology Officer of Lucid.Peter Rawlinson serves as the CEO and CTO of Lucid.Lucid

Some automakers are reticent to say how much range is affected under differing conditions. Others, like Ford’s CEO Jim Farley, freely admits, “If you’re pulling 10,000 pounds, an electric truck is not the right solution. And 95 percent of our customers tow more than 10,000 pounds.” GM, though, is promising it will meet heavier towing requirements with its 2024 Chevrolet Silverado EV. However, Lucid Group CEO Peter Rawlinson in a non-too subtle dig at both Ford and GM said, “The correct solution for an affordable pickup truck today is the internal combustion engine.”

Ford’s Farley foresees that the heavy-duty truck segment will be sticking with ICE trucks for a while, as “it will probably go hydrogen fuel cell before it goes pure electric.” Many in the auto industry are warning that realistic BEV range numbers under varying conditions need to be widely published, else risk creating a backlash against EVs in general.

Range risk concerns obviously are tightly coupled to EV charging availability. Most charging is assumed to take place at home, but this is not an option for many home or apartment tenants. Even those with homes, their garages may not be available for EV charging. Scarce and unreliable EV charging opportunities, as well as publicized EV road trip horror stories, adds to both the potential EV owners’ current perceived and real range satisfaction risk.

EVs ain’t cheap

Price is another EV purchase risk that is comparable to EV range. Buying a new car is the second most expensive purchase a consumer makes behind buying a house. Spending nearly 100 percent of an annual US median household income on an unfamiliar technology is not a minor financial ask.

That is one reason why legacy automakers and EV start-ups are attempting to follow Tesla’s success in the luxury vehicle segment, spending much of their effort producing vehicles that are “above the median average annual US household income, let alone buyer in new car market,” Strategic Vision’s Edwards says. On top of the twenty or so luxury EVs already or soon to be on the market, Sony and Honda recently announced that they would be introducing yet another luxury EV in 2026.

It is true that there are some EVs that will soon appear in the competitive price range of ICE vehicles like the low-end GM EV Equinox SUV presently priced around $30,000 with a 280-mile range. How long GM will be able to keep that price in the face of battery cost increases and inflationary pressure, is anyone’s guess. It has already started to increase the cost of its Chevrolet Bolt EVs, which it had slashed last year, “due to ongoing industry-related pricing pressures.”

An image of a Lucid  Air electric vehicle.The Lucid Air’s price ranges from $90,000 to $200,000 depending on options.Lucid.

Analysts believe Tesla intends to spark an EV price war before its competitors are ready for one. This could benefit consumers in the short-term, but could also have long-term downside consequences for the EV industry as a whole. Tesla fired its first shot over its competitors’ bows with a recently announced price cut from $65,990 to $52,990 for its basic Model Y, with a range of 330 miles. That makes the Model Y cost-competitive with Hyundai’s $45,500 IONIQ 5 e-SUV with 304 miles of range.

Tesla’s pricing power could be hard to counter, at least in the short term. Ford’s cheapest F-150 Lightning Pro is now $57,869 compared to $41,769 a year ago due to what Ford says are “ongoing supply chain constraints, rising material costs and other market factors.” The entry level F-150 XL with an internal combustion engine has risen in the past year from about $29,990 to $33,695 currently.

Carlos TavaresChief Executive OfficerExecutive Director of StellantisCarlos Tavares, CEO of Stellantis.Stellantis

Automakers like Stellantis, freely acknowledge that EVs are too expensive for most buyers, with Stellantis CEO Carlos Tavares even warning that if average consumers can’t afford EVs as ICE vehicle sales are banned, “There is potential for social unrest.” However, other automakers like BMW are quite unabashed about going after the luxury market which it terms “white hot.” BMW’s CEO Oliver Zipse does say the company will not leave the “lower market segment,” which includes the battery electric iX1 xDrive30 that retails for A$82,900 in Australia and slightly lower elsewhere. It is not available in the United States.

Mercedes-Benz CEO Ola Kallenius also believes luxury EVs will be a catalyst for greater EV adoption—eventually. But right now, 75 percent of its investment has been redirected at bringing luxury vehicles to market.

The fact that luxury EVs are more profitable no doubt helps keep automakers focused on that market. Ford’s very popular Mustang Mach-E is having trouble maintaining profitability, for instance, which has forced Ford to raise its base price from $43,895 to $46,895. Even in the Chinese market where smaller EV sales are booming, profits are not. Strains on profitability for automakers and their suppliers may increase further as battery metals prices increase, warns data analysis company S&P Global Mobility.

Jim Rowan, Volvo Cars' new CEO and President as of 21 March 2022Jim Rowan, Volvo Cars’ CEO and President.Volvo Cars

As a result, EVs are unlikely to match ICE vehicle prices (or profits) anytime soon even for smaller EV models, says Renault Group CEO Luca de Meo, because of the ever increasing cost of batteries. Mercedes Chief Technology Officer Marcus Schäferagrees and does not see EV/ICE price parity “with the [battery] chemistry we have today.” Volvo CEO Jim Rowan, disagrees with both of them, however, seeing ICE-EV price parity coming by 2025-2026.

Interestingly, a 2019 Massachusetts Institute of Technology (MIT) study predicted that as EVs became more widespread, battery prices would climb because the demand for lithium and other battery metals would rise sharply. As a result, the study indicated EV/ICE price parity was likely closer to 2030 with the expectation that new battery chemistries would be introduced by then.

Many argue, however, that total cost of ownership (TCO) should be used as the EV purchase decision criterion rather than sticker price. Total cost of ownership of EVs is generally less than an ICE vehicle over its expected life since they have lower maintenance costs and electricity is less expensive per mile than gasoline, and tax incentives and rebates help a lot as well.

However, how long it takes to hit the break-even point depends on many factors, like the cost differential of a comparable ICE vehicle, depreciation, taxes, insurance costs, the cost of electricity/petrol in a region, whether charging takes place at home, etc. And TCO rapidly loses it selling point appeal if electricity prices go up, however, as is happening in the UK and in Germany.

Even if the total cost of ownership is lower for an EV, a potential EV customer may not be interested if meeting today’s monthly auto payments is difficult. Extra costs like needing to install a fast charger at home, which can add several thousand dollars more, or higher insurance costs, which could add an extra $500-$600 a year, may also be seen as buying impediment and can change the TCO equation.

Reliability and other major tech risks

To perhaps distract wary EV buyers from range and affordability issues, the automakers have focused their efforts on highlighting EV performance. Raymond Roth, a director at financial advisory firm Stout Risius Ross, observes among automakers, “There’s this arms race right now of best in class performance” being the dominant selling point.

This “wow” experience is being pursued by every EV automaker. Mercedes CEO Kallenius, for example, says to convince its current luxury vehicle owners to an EV, “the experience for the customer in terms of the torque, the performance, everything [must be] fantastic.” Nissan, which seeks a more mass market buyer, runs commercials exclaiming, “Don’t get an EV for the ‘E’, but because it will pin you in your seat, sparks your imagination and takes your breath away.”

Ford believes it will earn $20 billion, Stellantis some $22.5 billion and GM $20 to $25 billion from paid software-enabled vehicle features by 2030.

EV reliability issues may also take one’s breath away. Reliability is “extremely important” to new-car buyers, according to a 2022 report from Consumer Reports (CR). Currently, EV reliability is nothing to brag about. CR’s report says that “On average, EVs have significantly higher problem rates than internal combustion engine (ICE) vehicles across model years 2019 and 2020.” BEVs dwell at the bottom of the rankings.

Reliability may prove to be an Achilles heel to automakers like GM and Ford. GM CEO Mary Barra has very publicly promised that GM would no longer build “ crappy cars.” The ongoing problems with the Chevy Bolt undercuts that promise, and if its new Equinox EV has issues, it could hurt sales. Ford has reliability problems of its own, paying $4 billion in warranty costs last year alone. Its e-Mustang has been subject to several recalls over the past year. Even perceived quality-leader Toyota has been embarrassed by wheels falling off weeks after the introduction of its electric bZ4X SUV, the first in a new series “bZ”—beyond zero—electric vehicles.

A vehicle is caught up in a mudslide in Silverado Canyon, Calif., Wednesday, March 10, 2021.A Tesla caught up in a mudslide in Silverado Canyon, Calif., on March 10, 2021. Jae C. Hong/AP Photo

Troubles with vehicle electronics, which has plagued ICE vehicles as well for some time, seems even worse in EVs according to Consumer Report’s data. This should not be surprising, since EVs are packed with the latest electronic and software features to make them attractive, like new biometric capability, but they often do not work. EV start-up Lucid is struggling with a range of software woes, and software problems have pushed back launches years at Audi, Porsche and Bentley EVs, which are part of Volkswagen Group.

Another reliability risk-related issue is getting an EV repaired when something goes awry, or there is an accident. Right now, there is a dearth of EV-certified mechanics and repair shops. The UK Institute of the Motor Industry (IMI) needs 90,000 EV-trained technicians by 2030. The IMI estimates that less than 7 percent of the country’s automotive service workforce of 200,000 vehicle technicians is EV qualified. In the US, the situation is not better. The National Institute for Automotive Service Excellence (ASE), which certifies auto repair technicians, says the US has 229,000 ASE-certified technicians. However, there are only some 3,100 certified for electric vehicles. With many automakers moving to reduce their dealership networks, resolving problems that over-the-air (OTA) software updates cannot fix might be troublesome.

Furthermore, the costs and time needed to repair an EV are higher than for ICE vehicles, according to the data analytics company CCC. Reasons include a greater need to use original equipment manufacturer (OEM) parts and the cost of scans/recalibration of the advanced driver assistance systems, which have been rising for ICE vehicles as well. Furthermore, technicians need to ensure battery integrity to prevent potential fires.

And some of batteries along with their battery management systems need work. Two examples: Recalls involving the GM Bolt and Hyundai Kona, with the former likely to cost GM $1.8 billion and Hyundai $800 million to fix, according to Stout’s 2021 Automotive Defect and Recall Report. Furthermore, the battery defect data compiled by Stout indicates “incident rates are rising as production is increasing and incidents commonly occur across global platforms,” with both design and manufacturing defects starting to appear.

For a time in New York City, one had to be a licensed engineer to drive a steam-powered auto. In some aspects, EV drivers return to these roots. This might change over time, but for now it is a serious issue.” —John Leslie King

CCC data indicate that when damaged, battery packs do need replacement after a crash, and more than 50 percent of such vehicles were deemed a total loss by the insurance companies. EVs also need to revisit the repair center more times after they’ve been repaired than ICE vehicles, hinting at the increased difficulty in repairing them. Additionally, EV tire tread wear needs closer inspection than on ICE vehicles. Lastly, as auto repair centers need to invest in new equipment to handle EVs, these costs will be passed along to customers for some time.

Electric vehicle and charging network cybersecurity is also growing as a perceived risk. A 2021 survey by insurance company HSB found that an increasing number of drivers, not only of EVs but ICE vehicles, are concerned about their vehicle’s security. Some 10 percent reported “a hacking incident or other cyber-attack had affected their vehicle,” HSB reported. Reports of charging stations being compromised are increasingly common.

The risk has reached the attention of the US Office of the National Cyber Director, which recently held a forum of government and automaker, suppliers and EV charging manufacturers focusing on “cybersecurity issues in the electric vehicle (EV) and electric vehicle supply equipment (EVSE) ecosystem.” The concern is that EV uptake could falter if EV charging networks are not perceived as being secure.

A sleeper risk that may explode into a massive problem is an EV owner’s right-to-repair their vehicle. In 2020, Massachusetts passed a law that allows a vehicle owner to take it to whatever repair shop they wish and gave independent repair shops the right to access the real-time vehicle data for diagnosis purposes. Auto dealers have sued to overturn the law, and some auto makers like Subaru and Kia have disabled the advanced telematic systems in cars sold in Massachusetts, often without telling new customers about it. GM and Stellantis have also said they cannot comply with the Massachusetts law, and are not planning to do so because it would compromise their vehicles’ safety and cybersecurity. The Federal Trade Commission is looking into the right-to-repair issue, and President Biden has come out in support of it.

You expect me to do what, exactly?

Failure to change consumer behavior poses another major risk to the EV transition. Take charging. It requires a new consumer behavior in terms of understanding how and when to charge, and what to do to keep an EV battery healthy. The information on the care and feeding of a battery as well as how to maximize vehicle range can resemble a manual for owning a new, exotic pet. It does not help when an automaker like Ford tells its F-150 Lightning owners they can extend their driving range by relying on the heated seats to stay warm instead of the vehicle’s climate control system.

Keeping in mind such issues, and how one might work around them, increases a driver’s cognitive load—things that must be remembered in case they must be acted on. “Automakers spent decades reducing cognitive load with dash lights instead of gauges, or automatic instead of manual transmissions,” says University of Michigan professor emeritus John Leslie King, who has long studied human interactions with machines.

King notes, “In the early days of automobiles, drivers and chauffeurs had to monitor and be able to fix their vehicles. They were like engineers. For a time in New York City, one had to be a licensed engineer to drive a steam-powered auto. In some aspects, EV drivers return to these roots. This might change over time, but for now it is a serious issue.”


The first-ever BMW iX1 xDrive30, Mineral White metallic, 20\u201c BMW Individual Styling 869i The first-ever BMW iX1 xDrive30, Mineral White metallic, 20“ BMW Individual Styling 869i BMW AG

This cognitive load keeps changing as well. For instance, “common knowledge” about when EV owners should charge is not set in concrete. The long-standing mantra for charging EV batteries has been do so at home from at night when electricity rates were low and stress on the electric grid was low. Recent research from Stanford University says this is wrong, at least for Western states.

Stanford’s research shows that electricity rates should encourage EV charging during the day at work or at public chargers to prevent evening grid peak demand problems, which could increase by as much as 25 percent in a decade. The Wall Street Journal quotes the study’s lead author Siobhan Powell as saying if everyone were charging their EVs at night all at once, “it would cause really big problems.”

Asking EV owners to refrain from charging their vehicles at home during the night is going to be difficult, since EVs are being sold on the convenience of charging at home. Transportation Secretary Pete Buttigieg emphasized this very point when describing how great EVs are to own, “And the main charging infrastructure that we count on is just a plug in the wall.”

EV owners increasingly find public charging unsatisfying and is “one of the compromises battery electric vehicle owners have to make,” says Strategic Vision’s Alexander Edwards, “that drives 25 percent of battery electric vehicle owners back to a gas powered vehicle.” Fixing the multiple problems underlying EV charging will not likely happen anytime soon.

Another behavior change risk relates to automakers’ desired EV owner post-purchase buying behavior. Automakers see EV (and ICE vehicle) advanced software and connectivity as a gateway to a software-as-a-service model to generate new, recurring revenue streams across the life of the vehicle. Automakers seem to view EVs as razors through which they can sell software as the razor blades. Monetizing vehicle data and subscriptions could generate $1.5 trillion by 2030, according to McKinsey.

VW thinks that it will generate “triple-digit-millions” in future sales through selling customized subscription services, like offering autonomous driving on a pay-per-use basis. It envisions customers would be willing to pay 7 euros per hour for the capability. Ford believes it will earn $20 billion, Stellantis some $22.5 billion and GM $20 to $25 billion from paid software-enabled vehicle features by 2030.

Already for ICE vehicles, BMW is reportedly offering an $18 a month subscription (or $415 for “unlimited” access) for heated front seats in multiple countries, but not the U.S. as of yet. GM has started charging $1,500 for a three-year “optional” OnStar subscription on all Buick and GMC vehicles as well as the Cadillac Escalade SUV whether the owner uses it or not. And Sony and Honda have announced their luxury EV will be subscription-based, although they have not defined exactly what this means in terms of standard versus paid-for features. It would not be surprising to see it follow Mercedes’ lead. The automaker will increase the acceleration of its EQ series if an owner pays a $1,200 a year subscription fee.

Essentially, automakers are trying to normalize paying for what used to be offered as standard or even an upgrade option. Whether they will be successful is debatable, especially in the U.S. “No one is going to pay for subscriptions,” says Strategic Vision’s Edwards, who points out that microtransactions are absolutely hated in the gaming community. Automakers risk a major consumer backlash by using them.

To get to EV at scale, each of the EV-related range, affordability, reliability and behavioral changes risks will need to be addressed by automakers and policy makers alike. With dozens of new battery electric vehicles becoming available for sale in the next two years, potential EV buyers now have a much great range of options than previously. The automakers who manage EV risks best— along with offering compelling overall platform performance—will be the ones starting to claw back some of their hefty EV investments.

No single risk may be a deal breaker for an early EV adopter, but for skeptical ICE vehicle owners, each risk is another reason not to buy, regardless of perceived benefits offered. If EV-only families are going to be the norm, the benefits of purchasing EVs will need to be above—and the risks associated with owning will need to match or be below—those of today’s and future ICE vehicles.

In the next articles of this series, we’ll explore the changes that may be necessary to personal lifestyles to achieve 2050 climate goals.

Keep Reading ↓Show less
{"imageShortcodeIds":[]}

Powering Offshore Wind Farms With Numerical Modeling of Subsea Cables

Hellenic Cables in Greece uses finite element modeling to analyze and validate underground and subsea cable designs

10 min read
Powering Offshore Wind Farms With Numerical Modeling of Subsea Cables

This sponsored article is brought to you by COMSOL.

“Laws, Whitehouse received five minutes signal. Coil signals too weak to relay. Try drive slow and regular. I have put intermediate pulley. Reply by coils.”

Keep Reading ↓Show less
{"imageShortcodeIds":["32370385","32370391","32370489","32370493","32370515"]}