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Wednesday, March 25, 2026

What Honda’s EV Retreat Means For The Future Of Clean Tech – Analysis

Chinese firms such as CATL and BYD supply the majority of the world’s EV batteries. The country accounts for the largest share in the production and export of battery electric vehicles and plug-in hybrid electric vehicles.
 Photo by Sosnxiu Laim MingNaingh/Wikimedia Commons


March 25, 2026 
360info
By Ray Wills and Peter Newman

Japan’s slow-motion retreat from the car industry’s technological frontier is now impossible to ignore.

Honda’s recent decision to cancel three new battery-electric models for the US market — a massive write-down and refocus on hybrids — is not an isolated corporate mishap; it is a symptom of a deeper national problem. These are the classic hallmarks of late, cautious entry rather than bold experimentation.

A country that once re-engineered the global auto industry now risks watching the next era of mobility – and much of clean technology – being defined elsewhere, most obviously in China.


Data shows that when it comes to vehicle exports, China has surpassed Japan, and is set to define the future of mobility. Wills and Newman, 2025

This is not a story about engineering talent suddenly evaporating. Japan still turns out world-class engineers, batteries, components and robots. The problem is strategic: a system optimised for incremental improvement of yesterday’s technologies – internal combustion engines, conventional hybrids and even hydrogen fuel-cell vehicles – is colliding with a transition that rewards speed, scale and a willingness to cannibalise the old, underestimating how quickly BEV costs would fall and how strongly policy (China, EU) would tilt toward zero‑tailpipe vehicles.

Honda’s EV retreat simply puts that failure in the headlines.


Honda’s logic is revealing. Faced with long term pressure from the government to create Japanese hydrogen transport, recent pressure from the US on tariffs, and increasingly brutal competitive pressure from Chinese EV makers at home and abroad, Honda concluded it could not deliver electric models that offered value for money against the new wave of competitors, and has stayed with internal combustion engine and hybrid drivetrains.

Rather than doubling down on innovation, it has retreated to familiar ground – hybrids and efficient internal combustion engines with a bit of hydrogen as well – accepting a multi-billion-dollar loss in the process. The decision may protect its balance sheet in the short term. In the long term, it amounts to ceding the future profit pool of the industry.


This pattern is not unique to Honda. For more than a decade, Japan’s major carmakers have treated battery-electric vehicles as a niche, betting that hybrids, hydrogen and e-fuels would be “good enough” for most markets. In doing so, they aligned themselves with a policy framework that defined “electrified” vehicles broadly – counting hybrids and even future hydrogen options alongside true plug‑ins – and so dulled the incentive to build globally competitive battery‑electric models.

Long before the 2011 tsunami and Fukushima nuclear disaster, the Japanese government and industry had already anointed hydrogen as the fuel of the future, channeling subsidies and political capital into fuel-cell cars and refuelling stations that neatly preserved existing engine know-how and fossil-fuel supply chains.

Hydrogen became a comforting mirage: zero-emission driving without hard choices about grids, charging, or the role of oil and gas. This made it politically attractive, but it also diverted money, engineering effort and focus away from the lithium-ion batteries that were quietly racing down the cost curve.

Japanese carmakers were aided by governments – including Australia and New Zealand – that were slow to adopt strong fuel-efficiency and emissions standards. In those small but profitable markets, they used their political capital to argue for weaker rules and generous credit for hybrids and future hydrogen options, preserving sales of their existing line-ups.

 That bought time, but it did not build capacity.


Meanwhile, China moved fast. Consider how empires and infrastructure work: Rome built 300,000 kilometres of roads, not as a vanity project, but as the backbone of an integrated economic system – standardised, centrally directed, and designed for scale. China (which has form in such things) is doing something similar in modern times with clean technology. It has built the factories, supply chains, standards and industrial policies that let it produce batteries, electric vehicles, solar panels and associated hardware at breathtaking volumes and increasingly competitive quality.

Scale is not a side-effect; it is the strategy. Once you can run a battery plant or an EV platform at volumes far beyond any competitor, learning curves and cost reductions become self-reinforcing. Standards – in charging, batteries, software, manufacturing processes – lock in these advantages and make it easier to export both products and systems. Besides, the ability to coordinate policy, infrastructure and finance around national objectives — whether that is cutting oil imports, dominating key supply chains, or exporting millions of vehicles a year — is a major advantage. So even as China spent the last decade paving battery “roads” across its economy, Japan kept surveying hydrogen aqueducts that never quite flowed.

Japan used to understand this logic. Its post-war rise in autos and electronics was built on long-term industrial strategy, export discipline and a tight loop between government and industry. But the institutions that once drove bold bets have ossified. Corporate governance still rewards consensus and stability over risk. Failure is stigmatised. Cash piles up on balance sheets instead of being deployed into high-risk innovation. That culture made it easy to keep funding incremental ICE, hybrid and hydrogen projects while repeatedly postponing the far larger capital commitments needed for dedicated battery‑electric platforms and software.

The result is what we now see in the car industry: impeccable refinement of the internal combustion engine, world-leading hybrids, flagship hydrogen projects – and hesitation, followed by late, half-hearted entries into battery-electric platforms.

Instead of betting big on battery‑electric architectures in the 2000s and 2010s, Japan doubled down on hybrids and hydrogen fuel‑cell cars, technologies that looked innovative but in practice extended the life of existing engines, suppliers and fuel infrastructure rather than disrupting them.

China, by contrast, has treated EVs and batteries as core strategic industries. It has thrown policy, subsidies, infrastructure and finance at the problem, and crucially, it has backed domestic firms that were willing to experiment, scale fast and accept failure along the way. China now dominates the EV supply chain, with Chinese firms such as CATL and BYD supplying the majority of the world’s EV batteries and China itself accounting for the largest share of global BEV and PHEV production and export.

The outcome is visible in export numbers and in the streets of Europe, Southeast Asia, the Middle East and Latin America (Figure 2). Chinese manufacturers now dominate global production of battery-electric and plug-in hybrid vehicles, while also turning out enormous volumes of conventional cars. Japan’s export lines, in contrast, have been flat or declining for years in all segments.



China is racing ahead in the production of battery-electric and plug-in hybrid vehicles.


This asymmetry matters. For Japan, autos have been one of the few big, tradable, high-productivity sectors anchoring its position in the world economy. Losing ground here is not simply an industrial reshuffle; it is a strategic diminishment. For countries like Australia (Figure 3) and New Zealand, it raises a different question: how long can we remain comfortable as markets where yesterday’s technologies were dumped because we were slow to set standards?

Both countries have spent the last decade debating whether we can “go too fast” on clean cars. The real risk now is being left behind. As more jurisdictions adopt strong efficiency and emissions standards – effectively making electric the default for new sales – automakers will prioritise those markets for their best products. That means China, Europe and parts of North America will see the newest, cheapest and most efficient EVs first, while slower movers wait longer and pay more for second‑tier models.

Laggards get the leftovers: older platforms, ICE, hydrogen showpieces and mild hybrids that cannot be sold elsewhere – and eventually, shrinking support as global supply chains retool around electric. This was predicted by the IPCC a decade ago, and has become even more predictable in the last few years, as successive assessment reports warned that late adopters of zero‑emissions technologies would face higher transition costs, stranded assets and reduced access to cutting‑edge low‑carbon options (see, for example, IPCC AR5 and AR6 mitigation reports).

Honda’s retreat is a warning. A company that now doubts its ability to compete on EVs is, bluntly, a company expressing doubt about its long-term relevance in the car market. If that mindset spreads across Japan Inc, we are watching a gradual exit from technological leadership, not just in vehicles but across clean technologies where similar dynamics apply: batteries, grid equipment, hydrogen for industry processing, and next-generation renewables.

Has Japan “forgotten how to innovate”? The engineering capacity is still there. What has been forgotten is how to take coordinated, empire-scale bets on the right future.

Japan did make a big, centrally backed bet – but it was on hydrogen and eking out extra decades for the combustion engine, with fuel‑cell pilots and hydrogen roadmaps standing in for a true electrification plan. China, at the same time, was using its own empire‑scale machinery to pour capital, policy and infrastructure into batteries, dedicated electric drivetrains and the high‑capacity grids needed to run them.

Empires are built — and rebuilt — on infrastructure, standards and the courage to move early at scale. In clean mobility and related tech, China now looks far more like Rome laying down roads than Japan does. Honda’s EV retreat is just one story, but together with hundreds of others, it points to a new centre of gravity – and a sobering question about who will own these next decades of transport.


About the authors and editor:

Professor Peter Newman AO is John Curtin Distinguished Professor of Sustainability, Curtin University.

Professor Ray Wills is Adjunct Professor at The University of Western Australia, and Managing Director of Future Smart Strategies.

Namita Kohli, Commissioning Editor, 360info

Source: This article was published by 360.info






Tuesday, March 24, 2026

Remembering Fukushima... the Other Road to Nuclear Nightmare

With nine nuclear-armed nations and roughly 12,000 nuclear warheads on this planet, worries about nuclear war are unavoidable. However, the danger of a nuclear disaster at a seemingly “peaceful” nuclear facility is often ignored.



In this satellite view, the Fukushima Dai-ichi Nuclear Power plant is shown after a massive earthquake and subsequent tsunami on March 14, 2011 in Futaba, Japan.
(Photo by DigitalGlobe via Getty Images via Getty Images)

Joshua Frank
Mar 23, 2026
TomDispatch


Nine countries now possess nuclear weapons and we have just seen the start of a new war in the Middle East over one more nation supposedly trying to acquire them. While we consider the dangers of such weapons and their capacity to cause massive destruction, we often overlook the risks associated with what still passes for “peaceful” nuclear power. With that in mind, let me revisit a moment when that reality should have become far clearer.

I had crawled into bed on March 10, 2011, opened my phone, and scrolled through my Instagram feed. The app was still fairly new then, and I was only following a dozen or so accounts, several from Japan. One amateur photographer there had posted photos minutes earlier of a fractured sidewalk and a toppled bookshelf. A massive earthquake had just rattled Tokyo.




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A news article confirmed that a magnitude 7.9 quake had indeed struck 80 miles off the coast of Japan. Later, it was upgraded to 9.0, 1,000 times more powerful in terms of energy released. Holy shit, I thought. That’s huge! Worried, I emailed my old college friend Ichiro, who lived in Tokyo, to make sure his family was safe. A short while later, he replied that they were fine, but that a massive tsunami had indeed flooded the Tohoku region north of Tokyo. Many were dead.

“It’s horrible. It’s chaos,” he wrote me.

The nuclear industry has a reasonably polite name for a disaster like the one that was rocking Fukushima. They refer to it as a “beyond design-basis accident” because no single nuclear plant design can account for every possible problem it might encounter in its lifetime.

By the time Ichiro’s message arrived, distressing images of the tsunami were already circulating online and the death toll was rising fast, though the floodwaters were by then receding. As I watched heartbreaking videos of screaming onlookers, capsized boats, floating debris, and cars submerged like toys in a bathtub, another tragedy was unfolding that few, even inside the Japanese government, were aware of. A nuclear plant in Fukushima, operated by TEPCO (the Tokyo Electric Power Company), had been swamped by the tremendous flooding and lost all power.

The Fukushima Daiichi nuclear plant, built by General Electric (GE) in the mid-1960s, was designed to withstand natural disasters, but its creators never foresaw an earthquake like that. When the plant’s sensors detected the quake, its reactors automatically shut down. That emergency shutdown (or scram) halted its fission process, triggering backup power to keep cold seawater flowing through the reactors and spent-fuel containers to prevent overheating. Things at Fukushima were going according to plan until that massive tsunami battered the plant, washing away transmission towers and damaging electrical systems. There were backup generators in the basement, but those, too, had been inundated by waves of seawater, and an already bad situation was about to get far worse.

A power outage at a nuclear power plant is known as a “station blackout.” As you might imagine, it’s one of the worst scenarios any nuclear facility could possibly experience. If all electricity is lost, that means water is no longer being pumped into the reactor’s scalding-hot core to cool it down. And if that core isn’t constantly being cooled, one thing is certain: Disaster will ensue. The fission process itself may be complicated, but that’s basic physics. To make matters worse, there were three operating reactors at Fukushima Daiichi. Luckily, three others had already been shut down for maintenance. If power wasn’t restored in short order, that would mean that all three of Fukushima’s reactors were in very big trouble.

We would later learn that no one—not at TEPCO, GE, or among Japanese regulators—had ever considered the possibility that all the reactors might lose electricity at once. They had only drawn up plans for one reactor to go down, in which case the others could keep the plant running. But all of them offline, and every generator out of commission? There was no precedent or playbook for that.

The nuclear industry has a reasonably polite name for a disaster like the one that was rocking Fukushima. They refer to it as a “beyond design-basis accident” because no single nuclear plant design can account for every possible problem it might encounter in its lifetime. The fact that there’s a term for this should make you anxious.
Meltdowns and Fallout

Over the next several days, the emergency at Fukushima Daiichi only worsened. Every effort to restore power to its reactors hit a dead end. On-site radiation-detection equipment, which would have triggered warnings and guided evacuation efforts for those in danger, was no longer functioning. Plans to pump water into the reactors to cool them had faltered. Their cores kept overheating, and the boiling pools of spent fuel were at risk of drying out, potentially triggering a massive fire that would release extreme amounts of radiation.

Within three days, following a series of fires, hydrogen explosions, and panic among those aware of what was happening, Fukushima’s Units 1, 2, and 3 experienced full-scale core meltdowns. Over 150,000 people within an 18-mile radius had already been forced to evacuate, and radiation plumes would take two weeks to spread across the northern hemisphere, although the Japanese government wouldn’t admit publicly that any meltdown had occurred until June 2011, three months later.

The only good news for the 13 million people living 150 miles south in Tokyo was that, during and immediately after the meltdowns, prevailing winds carried much of Fukushima’s radioactive material away from the smoldering reactors and out to sea. It’s estimated that 80% of the fallout from Fukushima ended up in the ocean, meaning most of it headed east rather than toward population centers to the south and west. The other fortunate news was that the spent fuel containers had somehow survived it all. If their water levels in the pools had been drained, far more radiation would have been released.

But Tokyo wasn’t completely spared. After years of research, scientists discovered that cesium-rich microparticles had blanketed the greater Tokyo area, an unpopular discovery that drew backlash and threats of academic censorship. Areas around the Fukushima exclusion zones recorded the highest radiation levels. Japanese government officials continually downplayed the dangers of the accident and were reluctant to even classify the event as a Level 7 nuclear disaster, the highest rating on the International Nuclear Event Scale, which would have placed it on a par with the 1986 Chernobyl nuclear disaster. Japanese officials have also failed to conduct long-term epidemiological studies that would include baseline measurements of cancer rates, which has cast doubt on thyroid screenings that found troubling incidents of cancer far higher than researchers expected.
Radioactive Fish

Prior to the earthquake, the ocean’s cesium-137 levels near Fukushima were 2 Becquerels (a unit of radioactivity) per cubic meter, well below the recommended drinking water threshold of 10,000 Becquerels. Just after March 11, 2011, cesium-137 levels there spiked to 50 million before decreasing as sea currents dispersed the radioactive particles away from the coast. The ocean, however, had been poisoned.

In the years that followed the Fukushima nuclear disaster, researchers documented a frightening, yet predictable trend. Radioactive isotopes in seawater were taken up by marine plants (phytoplankton), which then moved up the food chain into tiny marine animals (zooplankton) and, eventually, to fish. Cesium-137 consumed by fish can reside in their bodies for months, while Strontium-90 remains in their bones for years. If humans then eat such fish, they will also be exposed to those radioactive particles. The more contaminated fish they eat, the greater the radioactive buildup will be.

In 2023, over a decade after the incident, radiation levels remained sky-high in black rockfish caught off the Fukushima coast. Other bottom-dwelling species have been found to be laden with radioactivity, too, including eel and rock trout. Further concerns have been raised about the treated radioactive water that TEPCO continued to release into the ocean, prompting China to suspend seafood imports from Japan. Aside from those findings, there have been very few studies examining the effects of Fukushima’s radiation on ecosystems or on the people of Japan.

The world is unpredictable, and even the safest nuclear power plant can’t guarantee that it will hold up against whatever tragedy is coming next.

“Japan has clamped down on scientific efforts to study the nuclear catastrophe,” claims pediatrician Alex Rosen of International Physicians for the Prevention of Nuclear War. “There is hardly any literature, any publicized research, on the health effects on humans, and those that are published come from a small group of researchers at Fukushima Medical University.”

Recognizing such levels of radiation, even if confined to the waters near Fukushima, would cast the country’s nuclear industry as a significant threat—not only to Japan but globally. Any admission that Fukushima’s radiation is linked to increased cancer rates would raise broader concerns about nuclear power’s future viability. Radiation exposure is cumulative and, although Fukushima didn’t immediately cause mass casualties, it wasn’t a benign accident either. It took decades before it was accepted that Chernobyl had caused tens of thousands of excess cancer deaths. It may take even longer to completely understand Fukushima’s full effects. In the meantime, the still ongoing cleanup of the burned-out facilities may cost as much as 80 trillion yen ($500 billion).

It’s been 15 years since Fukushima’s reactors experienced those meltdowns, and we still don’t fully understand their long-term repercussions. Nuclear power advocates will argue that Fukushima wasn’t a serious incident and that nuclear technology is still safe. They’ll minimize radiation threats, remain optimistic that new reactor designs will never falter, dismiss the fact that there’s simply no permanent solution for radioactive waste, and overlook the inseparable connection between nuclear power and atomic weapons. After all, among other things, we’ll undoubtedly need nuclear energy to help power the artificial intelligence craze, right?

The operators and regulators at Fukushima were wholly unprepared for what unfolded on that fateful day in 2011. They never imagined that an earthquake of such magnitude could trigger a tsunami so immense that it would destroy the power grid, knock out water pumps, and disable backup generators. Likewise, no one can guarantee that nuclear plants or radioactive storage tanks are safe in war zones, or that the rivers and lakes needed to cool reactors globally won’t one day run dry or become too hot to do so—something that has already happened in Europe. Ultimately, we can’t anticipate every mishap, human error, or—especially in the age of climate chaos—every natural disaster that may come down the pike. The world is unpredictable, and even the safest nuclear power plant can’t guarantee that it will hold up against whatever tragedy is coming next.

Fifty miles south of where I live in Southern California, an old nuclear facility sits idle on the Pacific Coast in an earthquake-and-tsunami-hazard zone, not unlike the site where Fukushima was built. It’s not the only such plant in California, but it’s the one I often visit. When I’m there, I think about Fukushima and imagine what would happen if a similar, unexpected disaster reached California’s shores and how such an event would forever alter this land.
Searching for Solace at San Onofre

The morning light was peaking over the sandstone bluff, and the offshore breeze was soft and brisk. I’m barefoot in a wetsuit, trudging my surfboard down a dirt road at San Onofre, a state park in northern San Diego County, for a “dawn patrol” surf session. A series of high tides—likely made more extreme by rising sea levels—has eroded a large portion of the parking lot below, so the beach can only be reached on foot or by bike. I’m not complaining. It’s worth the short trek. The absence of vehicles down here also means fewer surfers in the water.

San O, as it’s lovingly referred to, has a rich surf history spanning 100 years. Duke Kahanamoku, the “father of modern surfing,” who popularized the ancient Hawaiian sport in Southern California and often visited San O in the 1940s, helped to solidify it as one of the region’s premier breaks and an early hub of SoCal surf culture. The waves are long and rolling thanks to an extensive cobblestone reef. It’s a magical place.

Things around here have changed quite a bit, however, since “The Duke” first paddled his heavy wooden board into the surf. Just down the beach, the San Onofre Nuclear Generating Station sits precariously perched 100 feet from the water. Its two large domes are an ominous sight. Constructed in the 1960s, the plant is no longer producing electricity, but the station’s 123 large concrete-and-steel storage vessels remain, housing 3.6 million pounds of highly radioactive waste. Since nobody wants the toxic stuff, it just sits there, looming, awaiting the next big earthquake like the one that shook Fukushima. San Onofre is designed to withstand a 7.0 shaker, but scientists believe the area is capable of producing one 10 times larger and 32 times stronger. With 8.4 million people living within a 50-mile radius, any geological upheaval at San O could make a hell of a mess. It’s a worrisome thought I’d rather not dwell on.

Although it is a state park, the ground that San Onofre sits upon is leased from the federal government because it lies within the 195-square-mile boundary of the Camp Pendleton Marine Corps base. More than a base, Camp Pendleton is a testing ground, where heavy artillery often booms in the distance. An occasional mock raid can occupy the beaches; helicopters sometimes swarm, and Amphibious Combat Vehicles crawl ashore. There’s even a faux Afghan village that was built at Camp Pendleton, costing taxpayers $170 million, where Marines can imagine terrorizing towns from Iran to Gaza. So strange that amid all this madness, San Onofre is where I search for solace.

In 2013, a radioactive gas leak from one of the nuclear plant’s steam generators, which are also within the military reserve, led to its closure. Southern California Edison (SCE), which operates the facility, reassured the public that there was nothing to be concerned about. Few, however, would consider SCE a trustworthy source. Over the years, the company has been caught in a series of lies about the safety of San Onofre, including falsifying firewatch records and grossly mishandling waste. Not dissimilar to TEPCO’s Fukushima deceit.

Like all nuclear power plants, San Onofre needed a lot of water to cool its three reactors, sucking in an astonishing 2.4 billion gallons of seawater a day. As you can imagine, that thirst had a serious impact on ocean ecology, killing fish and wrecking kelp beds. It’s taken over a decade, but some of what was destroyed is finally coming back to life after years of restoration. Despite the progress, discharge pipes still release radioactive effluent laced with cesium-137, cobalt-60, and tritium—a mile offshore 170 times a year. But SCE says there’s nothing to worry about. They also insist they don’t have much of a choice. All that leftover waste needs to be kept from overheating, and using seawater is the only option available.

It’s better not to think too much about a future Armageddon or what might be swimming beneath me while I’m out there bobbing between sets of waves. Surfing is supposed to help relieve my anxiety, not exacerbate it. It’s a little like backpacking in the wilds of Montana, which I also love to do, without constantly worrying about being chomped by a grizzly bear while in my sleeping bag. There are hazards to living in this crazy world—the worst of which, I’ve come to believe, are of the man-made variety.

As I slide my surfboard into the back of my van and peel off my wetsuit, I glance at San Onofre’s domes, which will start to be dismantled this year, and ponder the horrors still affecting Japan, fearing that someday a destructive tsunami may batter this beach, too. Sadly, it’s almost inevitable.

With nine nuclear-armed nations and roughly 12,000 nuclear warheads on this planet, worries about nuclear war are unavoidable. However, the danger of a nuclear disaster at a seemingly “peaceful” nuclear facility is often ignored. The future of atomic energy remains uncertain, but it is our duty to eliminate this hazardous energy source before another Fukushima triggers a war-like catastrophe all its own.


© 2023 TomDispatch.com


Joshua Frank
Joshua Frank is an award-winning California-based journalist and co-editor of CounterPunch. He is the author of the new book Atomic Days: The Untold Story of the Most Toxic Place in America (Haymarket Books).
Full Bio >

Friday, March 20, 2026

The Relentless Nightmare of Fukushima, 15 Years On


 March 20, 2026

IAEA experts depart Unit 4 of TEPCO’s Fukushima Daiichi Nuclear Power Station on 17 April 2013 as part of a mission to review Japan’s plans to decommission the facility. Photo Credit: Greg Webb / IAEA

Nine countries now possess nuclear weapons and we have just seen the start of a new war in the Middle East over one more nation supposedly trying to acquire them. While we consider the dangers of such weapons and their capacity to cause massive destruction, we often overlook the risks associated with what still passes for “peaceful” nuclear power. With that in mind, let me revisit a moment when that reality should have become far clearer.

I had crawled into bed on March 10, 2011, opened my phone, and scrolled through my Instagram feed. The app was still fairly new then, and I was only following a dozen or so accounts, several from Japan. One amateur photographer there had posted photos minutes earlier of a fractured sidewalk and a toppled bookshelf. A massive earthquake had just rattled Tokyo.

A news article confirmed that a magnitude 7.9 quake had indeed struck 80 miles off the coast of Japan. Later, it was upgraded to 9.0, 1,000 times more powerful in terms of energy released. Holy shit, I thought. That’s huge! Worried, I emailed my old college friend Ichiro, who lived in Tokyo, to make sure his family was safe. A short while later, he replied that they were fine, but that a massive tsunami had indeed flooded the Tohoku region north of Tokyo. Many were dead.

“It’s horrible. It’s chaos,” he wrote me.

By the time Ichiro’s message arrived, distressing images of the tsunami were already circulating online and the death toll was rising fast, though the floodwaters were by then receding. As I watched heartbreaking videos of screaming onlookers, capsized boats, floating debris, and cars submerged like toys in a bathtub, another tragedy was unfolding that few, even inside the Japanese government, were aware of. A nuclear plant in Fukushima, operated by TEPCO (the Tokyo Electric Power Company), had been swamped by the tremendous flooding and lost all power.

The Fukushima Daiichi nuclear plant, built by General Electric (GE) in the mid-1960s, was designed to withstand natural disasters, but its creators never foresaw an earthquake like that. When the plant’s sensors detected the quake, its reactors automatically shut down. That emergency shutdown (or scram) halted its fission process, triggering backup power to keep cold seawater flowing through the reactors and spent-fuel containers to prevent overheating. Things at Fukushima were going according to plan until that massive tsunami battered the plant, washing away transmission towers and damaging electrical systems. There were backup generators in the basement, but those, too, had been inundated by waves of seawater, and an already bad situation was about to get far worse.

A power outage at a nuclear power plant is known as a “station blackout.” As you might imagine, it’s one of the worst scenarios any nuclear facility could possibly experience. If all electricity is lost, that means water is no longer being pumped into the reactor’s scalding-hot core to cool it down. And if that core isn’t constantly being cooled, one thing is certain: disaster will ensue. The fission process itself may be complicated, but that’s basic physics. To make matters worse, there were three operating reactors at Fukushima Daiichi. Luckily, three others had already been shut down for maintenance. If power wasn’t restored in short order, that would mean that all three of Fukushima’s reactors were in very big trouble.

We would later learn that no one — not at TEPCO, GE, or among Japanese regulators — had ever considered the possibility that all the reactors might lose electricity at once. They had only drawn up plans for one reactor to go down, in which case the others could keep the plant running. But all of them offline, and every generator out of commission? There was no precedent or playbook for that.

The nuclear industry has a reasonably polite name for a disaster like the one that was rocking Fukushima. They refer to it as a “beyond design-basis accident” because no single nuclear plant design can account for every possible problem it might encounter in its lifetime. The fact that there’s a term for this should make you anxious.

Meltdowns and Fallout

Over the next several days, the emergency at Fukushima Daiichi only worsened. Every effort to restore power to its reactors hit a dead end. On-site radiation-detection equipment, which would have triggered warnings and guided evacuation efforts for those in danger, was no longer functioning. Plans to pump water into the reactors to cool them had faltered. Their cores kept overheating, and the boiling pools of spent fuel were at risk of drying out, potentially triggering a massive fire that would release extreme amounts of radiation.

Within three days, following a series of fires, hydrogen explosions, and panic among those aware of what was happening, Fukushima’s Units 1, 2, and 3 experienced full-scale core meltdowns. Over 150,000 people within an 18-mile radius had already been forced to evacuate, and radiation plumes would take two weeks to spread across the northern hemisphere, although the Japanese government wouldn’t admit publicly that any meltdown had occurred until June 2011, three months later.

The only good news for the 13 million people living 150 miles south in Tokyo was that, during and immediately after the meltdowns, prevailing winds carried much of Fukushima’s radioactive material away from the smoldering reactors and out to sea. It’s estimated that 80% of the fallout from Fukushima ended up in the ocean, meaning most of it headed east rather than toward population centers to the south and west. The other fortunate news was that the spent fuel containers had somehow survived it all. If their water levels in the pools had been drained, far more radiation would have been released.

But Tokyo wasn’t completely spared. After years of research, scientists discovered that cesium-rich microparticles had blanketed the greater Tokyo area, an unpopular discovery that drew backlash and threats of academic censorship. Areas around the Fukushima exclusion zones recorded the highest radiation levels. Japanese government officials continually downplayed the dangers of the accident and were reluctant to even classify the event as a Level 7 nuclear disaster, the highest rating on the International Nuclear Event Scale, which would have placed it on a par with the 1986 Chernobyl nuclear disaster. Japanese officials have also failed to conduct long-term epidemiological studies that would include baseline measurements of cancer rates, which has cast doubt on thyroid screenings that found troubling incidents of cancer far higher than researchers expected.

Radioactive Fish

Prior to the earthquake, the ocean’s cesium-137 levels near Fukushima were 2 Becquerels (a unit of radioactivity) per cubic meter, well below the recommended drinking water threshold of 10,000 Becquerels. Just after March 11, 2011, cesium-137 levels there spiked to fifty million before decreasing as sea currents dispersed the radioactive particles away from the coast. The ocean, however, had been poisoned.

In the years that followed the Fukushima nuclear disaster, researchers documented a frightening, yet predictable trend. Radioactive isotopes in seawater were taken up by marine plants (phytoplankton), which then moved up the food chain into tiny marine animals (zooplankton) and, eventually, to fish. Cesium-137 consumed by fish can reside in their bodies for months, while Strontium-90 remains in their bones for years. If humans then eat such fish, they will also be exposed to those radioactive particles. The more contaminated fish they eat, the greater the radioactive buildup will be.

In 2023, over a decade after the incident, radiation levels remained sky-high in black rockfish caught off the Fukushima coast. Other bottom-dwelling species have been found to be laden with radioactivity, too, including eel and rock trout. Further concerns have been raised about the treated radioactive water that TEPCO continued to release into the ocean, prompting China to suspend seafood imports from Japan. Aside from those findings, there have been very few studies examining the effects of Fukushima’s radiation on ecosystems or on the people of Japan.

“Japan has clamped down on scientific efforts to study the nuclear catastrophe,” claims pediatrician Alex Rosen of International Physicians for the Prevention of Nuclear War. “There is hardly any literature, any publicized research, on the health effects on humans, and those that are published come from a small group of researchers at Fukushima Medical University.”

Recognizing such levels of radiation, even if confined to the waters near Fukushima, would cast the country’s nuclear industry as a significant threat — not only to Japan but globally. Any admission that Fukushima’s radiation is linked to increased cancer rates would raise broader concerns about nuclear power’s future viability. Radiation exposure is cumulative and, although Fukushima didn’t immediately cause mass casualties, it wasn’t a benign accident either. It took decades before it was accepted that Chernobyl had caused tens of thousands of excess cancer deaths. It may take even longer to completely understand Fukushima’s full effects. In the meantime, the still ongoing cleanup of the burned-out facilities may cost as much as 80 trillion yen ($500 billion).

It’s been 15 years since Fukushima’s reactors experienced those meltdowns and we still don’t fully understand their long-term repercussions. Nuclear power advocates will argue that Fukushima wasn’t a serious incident and that nuclear technology is still safe. They’ll minimize radiation threatsremain optimistic that new reactor designs will never falter, dismiss the fact that there’s simply no permanent solution for radioactive waste, and overlook the inseparable connection between nuclear power and atomic weapons. After all, among other things, we’ll undoubtedly need nuclear energy to help power the artificial intelligence craze, right?

The operators and regulators at Fukushima were wholly unprepared for what unfolded on that fateful day in 2011. They never imagined that an earthquake of such magnitude could trigger a tsunami so immense that it would destroy the power grid, knock out water pumps, and disable backup generators. Likewise, no one can guarantee that nuclear plants or radioactive storage tanks are safe in war zones, or that the rivers and lakes needed to cool reactors globally won’t one day run dry or become too hot to do so — something that has already happened in Europe. Ultimately, we can’t anticipate every mishap, human error, or — especially in the age of climate chaos — every natural disaster that may come down the pike. The world is unpredictableand even the safest nuclear power plant can’t guarantee that it will hold up against whatever tragedy is coming next.

Fifty miles south of where I live in Southern California, an old nuclear facility sits idle on the Pacific coast in an earthquake-and-tsunami-hazard zone, not unlike the site where Fukushima was built. It’s not the only such plant in California, but it’s the one I often visit. When I’m there, I think about Fukushima and imagine what would happen if a similar, unexpected disaster reached California’s shores and how such an event would forever alter this land.

Joshua Frank at San Onofre, photo by Bill Livingston.

Searching for Solace at San Onofre

The morning light was peaking over the sandstone bluff, and the offshore breeze was soft and brisk. I’m barefoot in a wetsuit, trudging my surfboard down a dirt road at San Onofre, a state park in northern San Diego County, for a “dawn patrol” surf session. A series of high tides — likely made more extreme by rising sea levels — has eroded a large portion of the parking lot below, so the beach can only be reached on foot or by bike. I’m not complaining. It’s worth the short trek. The absence of vehicles down here also means fewer surfers in the water.

San O, as it’s lovingly referred to, has a rich surf history spanning 100 years. Duke Kahanamoku, the “father of modern surfing,” who popularized the ancient Hawaiian sport in Southern California and often visited San O in the 1940s, helped to solidify it as one of the region’s premier breaks and an early hub of SoCal surf culture. The waves are long and rolling thanks to an extensive cobblestone reef. It’s a magical place.

Things around here have changed quite a bit, however, since “The Duke” first paddled his heavy wooden board into the surf. Just down the beach, the San Onofre Nuclear Generating Station sits precariously perched 100 feet from the water. Its two large domes are an ominous sight. Constructed in the 1960s, the plant is no longer producing electricity, but the station’s 123 large concrete-and-steel storage vessels remain, housing 3.6 million pounds of highly radioactive waste. Since nobody wants the toxic stuff, it just sits there, looming, awaiting the next big earthquake like the one that shook Fukushima. San Onofre is designed to withstand a 7.0 shaker, but scientists believe the area is capable of producing one ten times larger and 32 times stronger. With 8.4 million people living within a 50-mile radius, any geological upheaval at San O could make a hell of a mess. It’s a worrisome thought I’d rather not dwell on.

Although it is a state park, the ground that San Onofre sits upon is leased from the federal government because it lies within the 195-square-mile boundary of the Camp Pendleton Marine Corps base. More than a base, Camp Pendleton is a testing ground, where heavy artillery often booms in the distance. An occasional mock raid can occupy the beaches; helicopters sometimes swarm, and Amphibious Combat Vehicles crawl ashore. There’s even a faux Afghan village that was built at Camp Pendleton, costing taxpayers $170 million, where Marines can imagine terrorizing towns from Iran to Gaza. So strange that amid all this madness, San Onofre is where I search for solace.

In 2013, a radioactive gas leak from one of the nuclear plant’s steam generators, which are also within the military reserve, led to its closure. Southern California Edison (SCE), which operates the facility, reassured the public that there was nothing to be concerned about. Few, however, would consider SCE a trustworthy source. Over the years, the company has been caught in a series of lies about the safety of San Onofre, including falsifying firewatch records and grossly mishandling waste. Not dissimilar to TEPCO’s Fukushima deceit.

Like all nuclear power plants, San Onofre needed a lot of water to cool its three reactors, sucking in an astonishing 2.4 billion gallons of seawater a day. As you can imagine, that thirst had a serious impact on ocean ecology, killing fish and wrecking kelp beds. It’s taken over a decade, but some of what was destroyed is finally coming back to life after years of restoration. Despite the progress, discharge pipes still release radioactive effluent laced with cesium-137, cobalt-60, and tritium — a mile offshore 170 times a year. But SCE says there’s nothing to worry about. They also insist they don’t have much of a choice. All that leftover waste needs to be kept from overheating, and using seawater is the only option available.

It’s better not to think too much about a future armageddon or what might be swimming beneath me while I’m out there bobbing between sets of waves. Surfing is supposed to help relieve my anxiety, not exacerbate it. It’s a little like backpacking in the wilds of Montana, which I also love to do, without constantly worrying about being chomped by a grizzly bear while in my sleeping bag. There are hazards to living in this crazy world — the worst of which, I’ve come to believe, are of the man-made variety.

As I slide my surfboard into the back of my van and peel off my wetsuit, I glance at San Onofre’s domes, which will start to be dismantled this year, and ponder the horrors still affecting Japan, fearing that someday a destructive tsunami may batter this beach, too. Sadly, it’s almost inevitable.

With nine nuclear-armed nations and roughly 12,000 nuclear warheads on this planet, worries about nuclear war are unavoidable. However, the danger of a nuclear disaster at a seemingly “peaceful” nuclear facility is often ignored. The future of atomic energy remains uncertain, but it is our duty to eliminate this hazardous energy source before another Fukushima triggers a war-like catastrophe all its own.

This piece first appeared on TomDispatch.

JOSHUA FRANK is co-editor of CounterPunch and co-host of CounterPunch Radio. He is the author of Atomic Days: The Untold Story of the Most Toxic Place in America, and the forthcoming, Bad Energy: The AI Hucksters, Rogue Lithium Extractors, and Wind Industrialists Who are Selling Off Our Future, both with Haymarket Books. He can be reached at joshua@counterpunch.org. You can troll him on Bluesky @joshuafrank.bsky.social