You’re out of free articles.
Log in
To continue reading, log in to your account.
Create a Free Account
To unlock more free articles, please create a free account.
Sign In or Create an Account.
By continuing, you agree to the Terms of Service and acknowledge our Privacy Policy
Welcome to Heatmap
Thank you for registering with Heatmap. Climate change is one of the greatest challenges of our lives, a force reshaping our economy, our politics, and our culture. We hope to be your trusted, friendly, and insightful guide to that transformation. Please enjoy your free articles. You can check your profile here .
subscribe to get Unlimited access
Offer for a Heatmap News Unlimited Access subscription; please note that your subscription will renew automatically unless you cancel prior to renewal. Cancellation takes effect at the end of your current billing period. We will let you know in advance of any price changes. Taxes may apply. Offer terms are subject to change.
Subscribe to get unlimited Access
Hey, you are out of free articles but you are only a few clicks away from full access. Subscribe below and take advantage of our introductory offer.
subscribe to get Unlimited access
Offer for a Heatmap News Unlimited Access subscription; please note that your subscription will renew automatically unless you cancel prior to renewal. Cancellation takes effect at the end of your current billing period. We will let you know in advance of any price changes. Taxes may apply. Offer terms are subject to change.
Create Your Account
Please Enter Your Password
Forgot your password?
Please enter the email address you use for your account so we can send you a link to reset your password:
EVs might have killed the hydrogen car, but trucking is a different story.
The hydrogen car lost.
Not long ago, it seemed like hydrogen fuel cells would power the next generation of climate change-fighting vehicles. Instead, batteries won the future. Americans now buy hundreds of thousands of electric vehicles each year, while only a couple of mass market hydrogen fuel cell cars can be found, and only in a select few places with enough hydrogen stations to make them driveable. The 20-year-old dream of a “hydrogen highway” across California never quite materialized, and hydrogen’s ascent toward becoming the fuel of the future remains stuck in limbo.
Yet hydrogen just keeps humming in the background. Researchers are not giving up but plugging away, trying to refine the chemistry of producing commercial hydrogen to make it better and cheaper. Most of the attention it attracts goes to how it might be put to use in heavy industry, but there are glimmers of potential in transportation as well. Advocates plan for hydrogen to be used in places where it makes more sense than a battery-electric vehicle, from warehouse forklifts up to semi trucks.
It may be that hydrogen is not, as it was once hyped, the answer to everything. But it’s going to pop up in more places than you might think.
Here is a hydrogen fuel cell refresher: Like a battery, a fuel cell has two electrodes — a negatively charged anode and a positively charged cathode — plus an electrolyte, the electrically conducting medium. Each atom of hydrogen contains a single proton and electron. When the fuel cell separates those two components, electrons travel one way to create a flow of electricity, while the protons go another way to be reunited with oxygen in the air to create water and heat. Given that those are the fuel cell’s only byproducts, it has the potential to be a very clean energy source (depending upon how the hydrogen itself was created).
Hydrogen’s other strength is that it’s a fuel, one that, compared to charging a battery, more closely resembles our pump-and-go experience of the gas station. But there is a flip side to that feature. If America wanted to become a hydrogen economy, a new nationwide hydrogen infrastructure of pipelines and substations would be needed to create and distribute the stuff all around the country, which is even more ambitious than the current movement to fill the country with high-speed EV chargers.
That’s why hydrogen projects have gone local. In Northern California, a group of Hyundai XCIENT Fuel Cell semis — which the company claims to be “the world's first mass-produced, heavy-duty truck powered by hydrogen” — are about to begin an experiment in green trucking backed by the University of California, Berkeley, the Center for Transportation and the Environment (CTE), and state agencies including the California Air Resources Board (CARB). Later this year, the NorCAL Zero project will see 30 hydrogen semis moving goods between the Port of Oakland and inland destinations such as Sacramento, Stockton, Modesto, and Fresno.
There are battery-powered big rigs on the way, including Tesla’s much-ballyhooed semi. But there are several reasons to be gung-ho for hydrogen, says P.J. Callahan, CTE’s project manager for the NorCal Zero project. Battery semis, when weighed down with a full load of cargo, would deliver only 150 to 200 miles of range, he says. Hyundai’s hydrogen trucks already promise at least twice that much, and Callahan expects fuel cell trucking to reach much higher as the technology develops.
“The ultimate kind of range goal that we expect for these types of trucks is between 700 miles and a thousand miles,” he says. “That's extremely challenging with battery electric.”
Fuel-cell semis can also carry more volume because there aren’t batteries eating up cubic feet of space that would otherwise go to cargo, Callahan says. Hydrogen also has the potential to deliver minimal refueling times that clock-conscious truckers are accustomed to. Eventually. With today’s technology, he says, it might take a half-hour to fill a semi with hydrogen, but that’s because existing systems are slow and conservative, built with small passenger vehicles like the Toyota Mirai in mind. With standardized equipment made for trucking, he says, fill-up times could drop to five to ten minutes.
There is still the issue of new hydrogen infrastructure. But running trucks on familiar paths between the Port of Oakland and popular inland destinations negates the need to build new refueling stations everywhere. “We are going to need a refueling network of stations, but … you can just be smarter about the way that we plan it,” Callahan says.
Plenty of other vehicles beyond big rigs have quietly turned to or experimented with hydrogen. Amazon now runs its small army of warehouse forklifts on fuel cells and has signed billion-dollar deals for the hydrogen supply. Establishing a green hydrogen pipeline for small uses like forklifts, as well as 800 heavy-duty trucks, is meant to help the company use hydrogen to meet its net-zero by 2040 goals.
Some U.S. cities run municipal buses on fuel cells. Hydrogen is considered a strong candidate to decarbonize the cargo shipping industry. Experiments have shown that it’s possible even to fly airplanes this way, though Hydrogen Airlines is a long way off.
Where hydrogen will continue to find a home depends a lot on how it will be made in the future. Nearly all the commercial hydrogen used in America today is created via the process called steam methane reformation, in which the methane in natural gas is subjected to high-temperature steam. The conversion creates free hydrogen but also the greenhouse gas carbon dioxide as a byproduct. That’s why scientists are racing to find ways to bring down the cost of green hydrogen solutions such as electrolyzers. They apply current to water to separate it into its component elements of hydrogen and oxygen, but they remain more expensive than current technology.
“It's a major goal of the state of California. It's a major goal of the federal government through the Department of Energy. Their hydrogen hub initiative wants to reduce the carbon impact of hydrogen and to get to green electrolyzed hydrogen from renewable resources so that there's no carbon involved in any part of the value chain,” Callahan says.
If such a goal could be achieved, hydrogen fuel could be used for a lot more than moving vehicles. For instance: One of the problems of a power grid running mostly on renewables is the need to store solar or wind energy when it’s available to use when it’s not. We could give old EV batteries a second life as energy storage for the grid, but it’s possible to imagine using liquid hydrogen to do the same job.
Perhaps the fuel of the future is still the fuel of the future.
Log in
To continue reading, log in to your account.
Create a Free Account
To unlock more free articles, please create a free account.
Plus 3 more outstanding questions about this ongoing emergency.
As Los Angeles continued to battle multiple big blazes ripping through some of the most beloved (and expensive) areas of the city on Thursday, a question lingered in the background: What caused the fires in the first place?
Though fires are less common in California during this time of the year, they aren’t unheard of. In early December 2017, power lines sparked the Thomas Fire near Ventura, California, which burned through to mid-January. At the time it was the largest fire in the state since at least the 1930s. Now it’s the ninth-largest. Although that fire was in a more rural area, it ignited for many of the same reasons we’re seeing fires this week.
Read on for everything we know so far about how the fires started.
Five major fires started during the Santa Ana wind event this week:
Officials have not made any statements about the cause of any of the fires yet.
On Thursday morning, Edward Nordskog, a retired fire investigator from the Los Angeles Sheriff’s Department, told me it was unlikely they had even begun looking into the root of the biggest and most destructive of the fires in the Pacific Palisades. “They don't start an investigation until it's safe to go into the area where the fire started, and it just hasn't been safe until probably today,” he said.
It can take years to determine the cause of a fire. Investigators did not pinpoint the cause of the Thomas Fire until March 2019, more than two years after it started.
But Nordskog doesn’t think it will take very long this time. It’s easier to narrow down the possibilities for an urban fire because there are typically both witnesses and surveillance footage, he told me. He said the most common causes of wildfires in Los Angeles are power lines and those started by unhoused people. They can also be caused by sparks from vehicles or equipment.
At about 27,000 acres burned, these fires are unlikely to make the charts for the largest in California history. But because they are burning in urban, densely populated, and expensive areas, they could be some of the most devastating. With an estimated 2,000 structures damaged so far, the Eaton and Palisades fires are likely to make the list for most destructive wildfire events in the state.
And they will certainly be at the top for costliest. The Palisades Fire has already been declared a likely contender for the most expensive wildfire in U.S. history. It has destroyed more than 1,000 structures in some of the most expensive zip codes in the country. Between that and the Eaton Fire, Accuweather estimates the damages could reach $57 billion.
While we don’t know the root causes of the ignitions, several factors came together to create perfect fire conditions in Southern California this week.
First, there’s the Santa Ana winds, an annual phenomenon in Southern California, when very dry, high-pressure air gets trapped in the Great Basin and begins escaping westward through mountain passes to lower-pressure areas along the coast. Most of the time, the wind in Los Angeles blows eastward from the ocean, but during a Santa Ana event, it changes direction, picking up speed as it rushes toward the sea.
Jon Keeley, a research scientist with the US Geological Survey and an adjunct professor at the University of California, Los Angeles told me that Santa Ana winds typically blow at maybe 30 to 40 miles per hour, while the winds this week hit upwards of 60 to 70 miles per hour. “More severe than is normal, but not unique,” he said. “We had similar severe winds in 2017 with the Thomas Fire.”
Second, Southern California is currently in the midst of extreme drought. Winter is typically a rainier season, but Los Angeles has seen less than half an inch of rain since July. That means that all the shrubland vegetation in the area is bone-dry. Again, Keeley said, this was not usual, but not unique. Some years are drier than others.
These fires were also not a question of fuel management, Keeley told me. “The fuels are not really the issue in these big fires. It's the extreme winds,” he said. “You can do prescription burning in chaparral and have essentially no impact on Santa Ana wind-driven fires.” As far as he can tell, based on information from CalFire, the Eaton Fire started on an urban street.
While it’s likely that climate change played a role in amplifying the drought, it’s hard to say how big a factor it was. Patrick Brown, a climate scientist at the Breakthrough Institute and adjunct professor at Johns Hopkins University, published a long post on X outlining the factors contributing to the fires, including a chart of historic rainfall during the winter in Los Angeles that shows oscillations between very wet and very dry years over the past eight decades. But climate change is expected to make dry years drier in Los Angeles. “The LA area is about 3°C warmer than it would be in preindustrial conditions, which (all else being equal) works to dry fuels and makes fires more intense,” Brown wrote.
And more of this week’s top renewable energy fights across the country.
1. Otsego County, Michigan – The Mitten State is proving just how hard it can be to build a solar project in wooded areas. Especially once Fox News gets involved.
2. Atlantic County, New Jersey – Opponents of offshore wind in Atlantic City are trying to undo an ordinance allowing construction of transmission cables that would connect the Atlantic Shores offshore wind project to the grid.
3. Benton County, Washington – Sorry Scout Clean Energy, but the Yakima Nation is coming for Horse Heaven.
Here’s what else we’re watching right now…
In Connecticut, officials have withdrawn from Vineyard Wind 2 — leading to the project being indefinitely shelved.
In Indiana, Invenergy just got a rejection from Marshall County for special use of agricultural lands.
In Kansas, residents in Dickinson County are filing legal action against county commissioners who approved Enel’s Hope Ridge wind project.
In Kentucky, a solar project was actually approved for once – this time for the East Kentucky Power Cooperative.
In North Carolina, Davidson County is getting a solar moratorium.
In Pennsylvania, the town of Unity rejected a solar project. Elsewhere in the state, the developer of the Newton 1 solar project is appealing their denial.
In South Carolina, a state appeals court has upheld the rejection of a 2,300 acre solar project proposed by Coastal Pine Solar.
In Washington State, Yakima County looks like it’ll keep its solar moratorium in place.
And more of this week’s top policy news around renewables.
1. Trump’s Big Promise – Our nation’s incoming president is now saying he’ll ban all wind projects on Day 1, an expansion of his previous promise to stop only offshore wind.
2. The Big Nuclear Lawsuit – Texas and Utah are suing to kill the Nuclear Regulatory Commission’s authority to license small modular reactors.
3. Biden’s parting words – The Biden administration has finished its long-awaited guidance for the IRA’s tech-neutral electricity credit (which barely changed) and hydrogen production credit.