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Life cycle analysis has some problems.

About six months ago, a climate scientist from Arizona State University, Stephanie Arcusa, emailed me a provocative new paper she had published that warned against our growing reliance on life cycle analysis. This practice of measuring all of the emissions related to a given product or service throughout every phase of its life — from the time raw materials are extracted to eventual disposal — was going to hinder our ability to achieve net-zero emissions, she wrote. It was a busy time, and I let the message drift to the bottom of my inbox. But I couldn’t stop thinking about it.
Life cycle analysis permeates the climate economy. Businesses rely on it to understand their emissions so they can work toward reducing them. The Securities and Exchange Commission’s climate risk disclosure rule, which requires companies to report their emissions to investors, hinges on it. The clean hydrogen tax credit requires hydrogen producers to do a version of life cycle analysis to prove their eligibility. It is central to carbon markets, and carbon removal companies are now developing standards based on life cycle analysis to “certify” their services as carbon offset developers did before them.
At the same time, many of the fiercest debates in climate change are really debates about life cycle analysis. Should companies be held responsible for the emissions that are indirectly related to their businesses, and if so then which ones? Are carbon offsets a sham? Does using corn ethanol as a gasoline substitute reduce emissions or increase them? Scientists have repeatedly reached opposite conclusions on that one depending on how they accounted for the land required to grow corn and what it might have been used for had ethanol not been an option. Though the debate plays out in calculations, it’s really a philosophical brawl.
Everybody, for the most part, knows that life cycle analysis is difficult and thorny and imprecise. But over and over, experts and critics alike assert that it can be improved. Arcusa disagrees. Life cycle analysis, she says, is fundamentally broken. “It’s a problematic and uncomfortable conclusion to arrive at,” Arcusa wrote in her email. “On the one hand, it has been the only tool we have had to make any progress on climate. On the other, carbon accounting is captured by academia and vested interests and will jeopardize global climate goals.”
When I recently revisited the paper, I learned that Arcusa and her co-authors didn’t just critique life cycle analysis, they proposed a bold alternative. Their idea is not economically or politically easy, but it also doesn’t suffer from the problems of trying to track carbon throughout the supply chain. I recently called her up to talk through it. Our conversation has been edited for clarity.
Can you walk me through what the biggest issues with life cycle analysis are?
So, life cycle analysis is a qualitative tool —
It seems kind of counterintuitive or even controversial to call it a qualitative tool because it’s specifically trying to quantify something.
I think the best analogy for LCA is that it’s a back-of-the-envelope tool. If you really could measure everything, then sure, LCA is this wonderful idea. The problem is in the practicality of being able to collect all of that data. We can’t, and that leads us to use emissions factors and average numbers, and we model this and we model that, and we get so far away from reality that we actually can’t tell if something is positive or negative in the end.
The other problem is that it’s almost entirely subjective, which makes one LCA incomparable to another LCA depending on the context, depending on the technology. And yes, there are some standardization efforts that have been going on for decades. But if you have a ruler, no matter how much you try, it’s not going to become a screwdriver. We’re trying to use this tool to quantify things and make them the same for comparison, and we can’t because of that subjectivity.
In this space where there is a lot of money to be made, it’s very easy to manipulate things one way or another to make it look a little bit better because the method is not robust. That’s really the gist of the problems here.
One of the things you talk about in the paper is the way life cycle analysis is subject to different worldviews. Can you explain that?
It’s mostly seen in what to include or exclude in the LCA — it can have enormous impacts on the results. I think corn ethanol is the perfect example of how tedious this can be because we still don’t have an answer, precisely for that reason. The uncertainty range of the results has shrunk and gotten bigger and shrunk and gotten bigger, and it’s like, well, we still don’t know. And now, this exact same worldview debate is playing into what should be included and not included in certification for things [like carbon removal] that are going to be sold under the guise of climate action, and that just can’t be. We’ll be forever debating whether something is true.
Is this one of those things that scientists have been debating for ever, or is this argument that we should stop using life cycle analysis more of a fringe idea?
I guess I would call it a fringe idea today. There’s been plenty of criticism throughout the years, even from the very beginning when it was first created. What I have seen is that there is criticism, and then there is, “But here’s how we can solve it and continue using LCA!” I’ve only come across one other publication that specifically said, “This is not working. This is not the right tool,” and that’s from Michael Gillenwater. He’s at the Greenhouse Gas Management Institute. He was like, “What are we doing?” There might be other folks, I just haven’t come across them.
Okay, so what is the alternative to LCA that you’ve proposed in this paper?
LCA targets the middle of the supply chain, and tries to attribute responsibility there. But if you think about where on the supply chain the carbon is the most well-known, it is actually at the source, at the point of origin, before it becomes an emission. At the point where it is created out of the ground is where we know how much carbon there is. If we focus on that source through a policy that requires mandatory sequestration — for every ton of carbon that is now produced, there is a ton of carbon that’s been put away through carbon removal, and the accounting happens there, before it is sold to anybody — anybody who’s now downstream of that supply chain is already carbon neutral. There is no need to track carbon all the way down to the consumer.
We know this is accurate because that is where governments already collect royalties and taxes — they want to know exactly how much is being sold. So we already do this. The big difference is that the policy would be required there instead of taxing everybody downstream.
You’re saying that fossil fuel producers should be required to remove a ton of carbon from the atmosphere for every ton of carbon in the fuels they sell?
Yeah, and maybe I should be more specific. They should pay for an equal amount of carbon to be removed from the atmosphere. In no way are we implying that a fossil carbon producer needs to also be doing the sequestration themselves.
What would be the biggest challenges of implementing something like this?
The ultimate challenge is convincing people that we need to be managing carbon and that this is a waste management type of system. Nobody really wants to pay for waste management, and so it needs to be regulated and demanded by some authority.
What about the fact that we don’t really have the ability to remove carbon or store carbon at scale today, and may not for some time?
Yes, we need to build capacity so that eventually we can match the carbon production to the carbon removal, which is why we also proposed that the liability needs to start today, not in the future. That liability is as good as a credit card debt — you actually have to pay it. It can be paid little by little every year, but the liability is here now, and not in the future.
The risk in the system that I’m describing, or even the system that is currently being deployed, is that you have counterproductive technologies that are being developed. And by counterproductive, I mean [carbon removal] technologies that are producing more emissions than they are storing, and so they’re net-positive. You can create a technology that has no intention of removing more carbon than its sequesters. The intention is just to earn money.
Do you mean, like, the things that are supposed to be removing carbon from the atmosphere and sequestering it, they are using fossil fuels to do that, and end up releasing more carbon in the process?
Yeah, so basically, what we show in the paper is that when we get to full carbon neutrality, the market forces alone will eliminate those kinds of technologies that are counterproductive. The problem is during the transition, these technologies can be economically viable because they are cheaper than they would be if 100% of the fossil fuel they used was carbon neutral through carbon removal. And so in order to prevent those technologies from gaming the system, we need a way to artificially make the price of fossil carbon as expensive as it would be if 100% of that fossil carbon was covered by carbon removal.
That’s where the idea of permits comes in. For every amount that I produce, I now have an instant liability, which is a permit. Each of those permits has to be matched by carbon removal. And since we don’t have enough carbon removal, we have futures and these futures represent the promise of actually doing carbon removal.
What if we burn through the remaining carbon budget and we still don’t have the capacity to sequester enough carbon?
Well, then we’re going into very unchartered territory. Right now we’re just mindlessly going through this thinking that if we just reduce emissions it will be good. It won’t be good.
In the paper, you also argue against mitigating greenhouse gases other than carbon, and that seems pretty controversial to me. Why is that?
We’re not arguing against mitigating, per se. We’re arguing against lumping everything under the same carbon accounting framework because lumping hides the difficulty in actually doing something about it. It’s not that we shouldn’t mitigate other greenhouse gases — we must. It’s just that if we separate the problem of carbon away from the problem of methane, away from the problem of nitrous oxide, or CFCs, we can tackle them more effectively. Because right now, we’re trying to do everything under the same umbrella, and that doesn’t work. We don’t tackle drinking and driving by sponsoring better tires. That’s just silly, right? We wouldn’t do that. We would tackle drinking and driving on its own, and then we would tackle better tires in a different policy.
So the argument is: Most of climate change is caused by carbon; let’s tackle that separately from the others and leave tackling methane and nitrous oxide to purposefully created programs to tackle those things. Let’s not lump the calculations altogether, hiding all the differences and hiding meaningful action.
Is there still a role for life cycle analysis?
You don’t want to be regulating carbon using life cycle analysis. So you can use the life cycle analysis for qualitative purposes, but we’re pretending that it is a tool that can deliver accurate results, and it just doesn’t.
What has the response been like to this paper? What kind of feedback have you gotten?
Stunned silence!
Nobody has said anything?
In private, they have. Not in public. In private, it’s been a little bit like, “I’ve always thought this, but it seemed like there was no other way.” But then in public, think about it. Everything is built on LCA. It’s now in every single climate bill out there. Every single standard. Every single consulting company is doing LCA and doing carbon footprinting for companies. It’s a huge industry, so I guess I shouldn’t have been surprised to hear nothing publicly.
Yeah, I was gonna ask — I’ve been writing about the SEC rules and this idea that companies should start reporting their emissions to their investors, and that would all be based on LCA. There’s a lot of buy-in for that idea across the climate movement.
Yeah, but there’s definitely a fine line with make-believe. I think in many instances, we kid ourselves thinking that we’re going to have numbers that we can hang our hats on. In many instances we will not, and they will be challenged. And so at that point, what’s the point?
One thing I hear when I talk to people about this is, well, having an estimate is better than not having anything, or, don’t let the perfect be the enemy of the good, or, we can just keep working to make them better and better. Why not?
I mean, I wouldn’t say don’t try. But when it comes to actually enforcing anything, it’s going to be extremely hard to prove a number. You could just be stuck in litigation for a long time and still not have an answer.
I don’t know, to me it just seems like an endless debate while time is ticking and we will just feel good because we’ll have thought we measured everything. But we’re still not doing anything.
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On Palisades’ progress, Taliban minerals, and New York’s climate superfund
Current conditions: Tropical Depression Five is barreling northwest from the Caribbean to Houston • In the Pacific, Hurricane Karina has strengthened into a Category 4 storm, but it’s unlikely to make landfall anywhere • The surface temperature of the Yellow Sea is nearly 85 degrees Fahrenheit, fueling storms across South Korea.
President Donald Trump is among the few politicians in America willing to stand 10-toes-down in defense of the need to build out more data centers. In a post Monday on Truth Social, the president admonished communities that reject data centers as misguided and foolish. “The only reason that communities throughout the U.S.A. should not want data centers is if they want to end up being backwards and poor,” Trump wrote. “If they want to be successful and rich, with far lower taxes and jobs all over the place, let data reign.” Still, he said “plenty of other places” want them. “If we kill the Golden Goose, you will only have yourselves to blame,” he wrote. “China could not be happier with this anti data center movement.” It’s not a popular stance. Heatmap Pro’s latest polling shows that three-quarters of Americans now oppose data centers built in their backyards.
The U.S. District Court for the Northern District of New York struck down the state’s Climate Change Superfund Act on Monday, ruling that the 2024 law is invalid under the federal Clean Air Act. The law set up a cost recovery scheme whereby fossil fuel companies would pay into a fund used to finance climate change adaptation-related infrastructure projects. The state’s argument rested in part on the Trump administration’s decision earlier this year to rescind the Environmental Protection Agency’s endangerment finding on greenhouse gases, which gave the agency authority to regulate climate pollution. That move “cannot be reconciled” with the administration’s argument that the CAA preempts New York’s law, the state said. Judge Brenda K. Sannes dismissed that reasoning in her decision, citing the Supreme Court’s ruling in American Electric Power v. Connecticut from 2011, which, as my colleague Emily Pontecorvo put it, “established companies’ protection from federal public nuisance claims over greenhouse gas emissions. That decision sprang from the Court’s earlier 2007 decision that the Clean Air Act covers greenhouse gas emissions — which the EPA is now contesting.”
The case was one of at least four the Trump administration has pursued against states attempting to make fossil fuel companies cover the costs of adapting to climate change. Judges have already ruled against its attempts to prevent Hawaii and Michigan from suing fossil fuel companies, however a case against a similar superfund law in Vermont is still pending. “New York’s law would have expropriated $75 billion from energy companies around the world during an energy emergency and in direct defiance of American foreign policy and federal law,” Adam Gustafson, principal deputy assistant attorney general of the Justice Department’s Energy and Natural Resources Division and the administration’s lead attorney in this case, said in a statement. “We will continue to fight for affordable, reliable energy for all Americans.”
A sign of how much an industry is really booming is whether startups begin popping up to provide ancillary services. Here’s a prime example of the artificial intelligence buildout’s energy boom: The AI energy software provider Verse told Heatmap exclusively for this newsletter that it now has 30 gigawatts of power under its platform’s management. The company’s flagship product, Aria, is an intelligence platform for data center companies that brings utility bills, contracts, power purchase agreements, and live power usage data under one dashboard. The company also helps manage on-site assets such as batteries. “You can't solve for speed, cost, risk, and carbon while your supply contracts, your load, and your flexible assets sit in separate silos,” Seyed Madaeni, Verse’s chief executive and co-founder, said in a statement.
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When Holtec International starts the Palisades nuclear plant back up, the facility in western Michigan will be the first in the nation to return to life after a permanent shutdown. Once complete, the Palisades restart will set off a series of other projects, including some to repower defunct nuclear plants in Pennsylvania and Iowa. That makes each milestone in the Palisades project notable — but the one it reached Monday is particularly promising. Holtec started loading fuel into the reactor, setting the stage for it to return to service potentially before the end of the year, months before the official March 2027 start date. “Loading fuel into the Palisades reactor is an important milestone and a reflection of the tremendous effort of the men and women who have brought this plant to this point,” Fadi Diya, Holtec’s chief nuclear officer, said in a statement. Palisades’ completion won’t just kick off more restarts. Holtec also plans to build its first two 300-megawatt small modular reactors at the site. Based on the industry’s standard pressurized water technology, the company has received hundreds of millions from the Department of Energy to support its construction.

Commerce can, at times, be the ultimate salve. Raw materials flowed from the U.S. to British factories even after the American Revolution and the War of 1812. Japanese and German automobiles dominate American roads decades after those nations’ defeats in World War II. As memories of war fade, Americans buy nearly $200 billion in Vietnamese goods each year, helping to transform the Southeast Asian country into a top manufacturing hub. Now the Taliban is making its pitch to Washington’s wallet. The Islamist group now leading Afghanistan said it would “absolutely” welcome U.S. investments in the rural, mountainous, and underdeveloped Central Asian country’s mining, infrastructure, or agriculture industries. “Relations between Afghanistan and the United States should not be assessed through the lens of the past 20 years of war, but rather on the basis of future co-operation,” Taliban foreign minister Amir Khan Muttaqi told the Financial Times at his office in Kabul. “Our economic policy is open.”
Meanwhile, from China to the U.S., lithium producers are posting what Bloomberg called “bumper profits.” Demand for energy storage is soaring, especially as countries seek to insulate themselves from the effects of the Iran War energy shock. As a result, Chinese companies such as Tianqi Lithium and Ganfeng Lithium Group reported their strongest net income in three years during the first six months of 2026. North Carolina-based Albemarle said global lithium demand had grown 45% compared to a year earlier. Australia’s PLS Group, meanwhile, “swung a $377 million profit in the 12 months to June 30 from a loss the year before,” the newswire reported.
You don’t need to be an expert in emerging markets to recognize the potential for solar. Countries that haven’t yet extended grid networks into rural areas can electrify villages using panels that are increasingly cheap and flooding into places such as sub-Saharan Africa, as I told you last week. You won’t need deep connections in those countries to start investing in that renewable energy potential, either. The startup Odyssey Energy Solutions, as my colleague Katie Brigham put it, “acts as a middleman between local installers and global capital providers that want exposure to developing markets but typically wouldn’t take the risk of financing small companies in unfamiliar environments.” This morning, the company told Katie exclusively, it’s announcing that it has raised another $74 million to fund its buildout.
Across the Global South, distributed energy is “leapfrogging a centralized grid,” Odyssey’s cofounder told Heatmap.
As old and increasingly strained as the U.S. electric grid is, Americans can still mostly count on it to keep the lights on. The average U.S. resident experiences just a few hours of power outages each year thanks to the country’s sprawling electricity distribution system. But that level of reliability is far from standard globally. Across parts of Africa, Asia, and South America, grids can be fragmented, undersupplied, and unreliable, forcing businesses to turn to expensive diesel generators for backup power — or even as their primary source of electricity when the grid can’t reliably reach them.
But as energy demand surges across the Global South, diesel prices rise with the ongoing Strait of Hormuz closure, and costs for solar and batteries continue to fall, the economics of energy in emerging markets are rapidly shifting. Commercial and industrial customers are increasingly turning to distributed solar as a reliable, affordable supplement — or alternative — to a conventional grid connection. The problem is that the small and midsize local companies capable of building these projects often lack the cash to purchase panels and batteries upfront. Equipment suppliers, meanwhile are often reluctant to extend them credit because they see the small businesses as too risky.
Odyssey Energy Solutions is built to solve that disconnect. Founded in 2017, the startup acts as a middleman between local installers and global capital providers that want exposure to developing markets but typically wouldn’t take the risk of financing small companies in unfamiliar environments. After raising a $15 million Series A in 2023, the company announced on Tuesday that it has closed a $74 million fundraising round — $27 million of equity, $47 million of debt — to expand its financing and procurement platform, deepen its presence in core markets such as Nigeria and India, and widen its business in Mexico and adjacent Latin American countries.
“It’s the same story as cell phones leapfrogging landlines,” Emily McAteer, Odyssey’s co-founder and CEO, told me. “It’s distributed energy leapfrogging a centralized grid.”
Today the company has about 6,000 commercial and industrial solar installers on its platform across more than 50 countries, and has facilitated over $3.6 billion in financing for distributed energy projects. Odyssey is planning to use its latest funding to expand beyond solar into other offerings, including financing batteries for electric two- and three-wheelers such as motorcycles and rickshaws, common modes of transit in many of its markets.
Whether it’s solar or motorcycles, Odyssey’s model works much the same way: The company places equipment orders on behalf of installers, letting them pay off the cost over time, after their own customers pay them first. While Odyssey places many small orders rather than large bulk orders with suppliers, its high transaction volume gives it significant purchasing power, allowing it to negotiate far better prices than a small business could. That lets Odyssey earn a margin on the equipment it sells while still offering installers a better deal than they would be able to secure independently.
For the installer, McAteer explained, it’s a pretty straightforward process, “You come to Odyssey’s procurement platform; you upload [the materials you need]. We come back, give you some options and good pricing on the [photovoltaic panels], the inverters, the batteries. You buy from us; you put a little bit down — a small deposit — and then the rest of the payment is due once you’ve gone and built your system, you’ve commissioned, and you’ve been paid by your client.”
Fronting that equipment cost requires significant debt on Odyssey’s own balance sheet. But because installers repay Odyssey once their projects are built, debt is a cheaper way to secure that working capital than equity, which is why it makes up the bulk of this latest funding round. McAteer says the company expects to raise another $50 million in debt over the next six months specifically to fund the extended payment terms it offers installers.
Working with thousands of these small and medium sized businesses also gives Odyssey another valuable asset: a wealth of data on their projects and performance over time. In 2021, the company acquired remote monitoring and controls startup Ferntech, giving it visibility into things like a solar project’s energy output and how customers are using that power. The data then feeds into Odyssey’s underwriting tools, giving prospective investors and lenders a way to evaluate which installers are creditworthy.
That matters because while Odyssey can help small businesses get equipment, these installers still require longer-term institutional capital from the likes of banks or development finance institutions to build their projects and support their ongoing operations. By giving capital providers a window into which installers are reliable and what projects perform well, Odyssey helps derisk the fragmented distributed energy market.
The company’s timing is certainly fortuitous. In Nigeria, one of Odyssey’s primary markets, the cost of diesel has risen over 93% in a matter of months this year due to supply disruptions in the Middle East. That’s thrown the country’s energy markets into disarray, as the country spends roughly three times as much on power from backup diesel generators as it does on grid electricity.
“There is more diesel generator capacity than there are power plants connected to the grid,” McAteer said of Nigeria. “So you already have distributed energy resources — just not renewable resources — powering the grid.” The near doubling of diesel prices has made solar and storage more compelling than ever for the country and the continent as a whole. Governments in many African countries are already offering cash incentives to distributed energy developers once their projects are up and running as part of a broader electrification push backed by a $30 billion joint commitment between the World Bank and the African Development Bank.
India, another core market for Odyssey, has also set ambitious clean electricity goals, aiming to install 500 gigawatts of non-fossil capacity by 2030, while also requiring solar cells to be manufactured domestically. At the same time, the country’s booming data center buildout is poised to drive up electricity demand, putting strain on an already unreliable grid that also depends on backup diesel power. Together, these trends are fueling a solar surge in the country — a wave that Odyssey wants to capture. India is now on track to become the world’s second largest solar market by annual installations this year, according to BloombergNEF — overtaking the U.S. and trailing only China.
“Pretty much in any market where we work, there’s just a lot happening that’s all converging around distributed energy as the future,” McAteer told me. If she’s right, some of the nations with the world’s weakest grids could be the ones best positioned to build what comes next.
A bill awaiting Governor Gavin Newsom’s signature would require utilities to at least offer to subsidize home electrification.
Going into this final stretch of the summer, I’m keeping an eye on California. Today is the last day for the state legislature to pass bills as part of its 2026 session, and lawmakers have already sent some interesting clean energy proposals to Governor Gavin Newsom’s desk.
On Friday, the legislature passed the Home Energy Choice Act, a bill supporting the transition to all-electric homes in the state, which builds on a growing set of policies and programs I’ve been writing about called “non-pipeline alternatives.”
Natural gas companies are constantly replacing and expanding the pipelines that deliver gas to people’s homes, but these kinds of investments are starting to look less prudent in states that are trying to transition off of fossil fuels. Utilities recover the costs of pipelines over decades through the rates their customers pay; but as people start to electrify their homes, there will be fewer customers to absorb those expenses, risking ballooning energy bills. Non-pipeline alternative programs typically require utilities to consider options for deferring or even avoiding these investments.
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Several states have created pilot programs that enable utilities to take the money they would have spent replacing an aging pipeline and instead use it to help customers go electric. Two years ago, California lawmakers authorized such a pilot focused on decarbonizing entire neighborhoods, but the implementation has been slow. The deadline for utilities to submit proposals for the first round of pilot projects isn’t until next April.
The Home Energy Choice Act would complement that program. Whereas the pilots are designed to work around replacing gas mains, the larger pipes that run down the middle of streets, the new bill would target gas service lines, the smaller pipes that connect individual homes to the mains.
In some ways, the new bill is more aggressive than the existing pilot program. In the case of the pilots, the utility has to get 67% of a neighborhood onboard before seeking approval from the utility commission to decarbonize. The new program would set no such threshold. Every time a utility identifies a service line that needs to be replaced, it will have to offer the customer at the end of the line a financial incentive to electrify instead. If Governor Newsom signs the bill, it will be the first law in the country to require investor-owned utilities to offer their customers non-pipeline alternatives.
Still, it’s entirely up to the customer whether or not to accept the incentive, so it’s unclear how effective it will be. The bill doesn’t specify how much money the utility has to offer, punting that decision to the state’s regulators. But it does say the incentive has to be lower than the average cost of a service line replacement so that it creates net savings for the utility — and therefore for the utility’s ratepayers. Service line replacements average $35,000 to $55,000 in California, according to an evaluation of the Home Energy Choice Act by University of California, Los Angeles, researchers. Earthjustice and the Natural Resources Defense Council, the environmental groups that backed the bill, propose a base incentive of $15,000 per home, with a bump to $20,000 for homes in disadvantaged communities.
While that might sound substantial, it’s not going to be enough, in many cases, to cover the entire cost of heat pumps, an electric water heater, an electric or induction stove, and an electric clothes dryer. The UCLA study pins average costs for whole-home electrification in California at upwards of $25,000.
Homeowners will be able to combine the incentive with other state subsidies, but that can get complicated. One of the biggest challenges with these kinds of programs is that planning a whole-home electrification project is essentially a full time job.
Last fall, I wrote about an incentive program run by the utility Con Edison in New York State called Electric Advantage. It’s similar to California’s neighborhood pilots, in that it targets gas mains instead of service lines. If all the homeowners served by a main agree to go electric, ConEd will cover 100% of the cost of replacing their gas-powered appliances with electric versions, plus installing insulation and air sealing. My story was about Julie Liu, a contractor the utility hires to manage these projects. Liu fronts the cost of the retrofit and handles all of the scheduling and coordination between electricians, plumbers, insulation specialists, and other building professionals. She braids together various incentives to get the job done for as little money as possible. And what I learned in writing about her is that she was basically one of a kind — ConEd hadn’t been able to find anyone else to do what she did.
That leads me to one of my big questions about this California bill: Will the gas companies manage the retrofits themselves, contract with third parties like Liu, or just give the money directly to homeowners? The bill doesn't specify, so that’s something utility regulators will have to work out if Newsom signs it into law.
I also wonder about relying on utilities to sell the idea of electrification to customers, especially since not all natural gas companies in California offer electricity service. How hard will they try to lose business? The bill does contain some safeguards to ensure the companies make a concerted effort, such as requiring that they notify customers of the climate and health benefits of going electric and of additional incentives they might be eligible for. The UCLA report recommends that regulators create additional incentives to get utilities on board, such as giving them a generous rate of return on the cost of the program.
Despite these questions, the bill looks well-suited for this moment of concerns about energy affordability, with its focus on reducing capital spending and maintaining customer choice. Newsom has until September 30 to veto it or sign it into law.