Wednesday, December 10, 2025

Book review: Return to Fukushima by Thomas A. Bass (released 2025)

Return to Fukushima
Copyright © 2025 by Thomas A. Bass, Professor of English and Journalism

Reviewed by Sharon and Ace Hoffman, December 2025

In researching and writing "Return to Fukushima", Thomas Bass has done the whole world a great service, because people all around the world are living with radiation.

The book paints a vivid picture of how people are attempting to deal with the aftermath of the March 2011 triple meltdown at Japan's Fukushima Daiichi nuclear power plant. "Return to Fukushima" emphasizes that what happened was unusual but not unexpected: "In industrial engineering, systems with known risks and rates of failure suffer not from accidents but foreseeable events. Given the dangers inherent in the technology, disasters at nuclear power plants are predictable and inevitable. They are not accidents. They are political decisions with disastrous results." (pg. 161)

"Return to Fukushima" obliterates the nuclear industry's myth that everything was okay at the reactor site until the tsunami inundated the backup diesel generators and pumps. According to the late Masao Yoshida, who led the last-ditch efforts to stop the reactors from melting down, extensive damage happened prior to the tsunami. Cooling pipes had been damaged, the site had lost electrical power, and monitors outside the plant were already measuring radiation levels "approaching 12 millisieverts per hour". (pg 124) ("A dose of 10 sieverts will kill you immediately." pg. 38)

Bass visited the area in 2018 and 2022. He interviewed people who had returned to areas the government claims are safe — but which still have highly contaminated "hot" spots — about their efforts to measure radiation and to mitigate its impacts on their lives. He met them in houses filled with soil and water samples and different types of radiation detectors. Bass talked with people tackling the endless task of removing radiation from their houses (endless, because contaminated soil, air, dust etc. keep coming back in), people who live far away from their families as they attempt to reestablish their livelihoods in the contamination zone.

Each place, plant, or animal that has been contaminated presents a different -- often impossible -- challenge. For example, in a rice paddy, farmers must remove contaminated soil and water without destroying the vital underground drainage systems. Similarly, farmers must decide between cutting down trees or living with new radiation beneath the trees whenever it rains. The people living near Fukushima-Daiichi and other contaminated areas worldwide try to solve these problems with limited information and resources, and with limited success.

Prior to the meltdowns, generations of people in the area harvested crops, raised livestock, and fished for highly prized seafood. Now, fishers incomes have fallen dramatically, despite partial government subsidies that pay them NOT to fish most of the time. Fish in the rivers near the reactors are also more radioactive than might be expected by measuring the surrounding levels, because the radiation bioaccumulates in moss on the bottom of those rivers.

Farmers attempting to restart their lives there face many problems. A couple of inches of topsoil was scraped from hundreds of square kilometers of farmland, bagged into millions of one-ton plastic bags, and hauled away to reduce local radiation levels. The heavy plastic is already deteriorating (of course).

Without the topsoil it is difficult to grow crops, and inevitably many of those crops are still too radioactive to legally offer for sale in Japan (although in some cases the crops may be sold in other countries, including the United States). One woman runs a produce market where every item is labeled with its radioactive burden. (She probably does NOT use the slogan "get it while it's hot"!)

Attempts to pretend that Fukushima has been "cleaned up" include officially determining that soil scraped off playgrounds downwind may simply be buried in other locations, and that vast quantities of contaminated water have been, and will be, diluted and dumped into the Pacific Ocean for the next hundred years or more. Incinerating radioactive debris leaves an ash pile that is often more radioactive, per kilogram, than the original debris. Radioactive smoke from these fires spreads radioactivity around Japan and around the world.

None of this redistribution of radioactive materials eliminates ANY radioactivity that has been and continues to be released. The molten blobs continue to fission under the reactors, just as Chernobyl's "elephant's foot" is still fissioning nearly twenty years after that "accident."

In addition to the personal stories that make up the bulk of this concise book, Bass somehow manages to cover much of the history of nuclear power, the different ways internal and external radiation affect living organisms, the impossibility of removing tritium from contaminated water, the nuclear industry's plans for "new" reactors which are actually based on old (and failed) technology, and many other topics.

Bass's book makes clear how much of a gamble nuclear power really is. Accidents will continue to happen, spoiling the home we live in permanently.

That is not the option society should choose.

"Return to Fukushima" is a quick and compelling read, and is highly recommended. It will disturb you, but if you are ever the victim of a future nuclear accident, it will help to have read this book.

Sharon and Ace Hoffman, Carlsbad, California USA


Thomas Bass also gave an excellent presentation at NEIS Night With the Experts on October 30, 2025 (recording available here: https://www.youtube.com/watch?v=seOEIkjpIbk). His presentation covers some of the important research from his book, and the Q&A delves more deeply into many aspects of nuclear power disasters in general and Fukushima-Daiichi in particular.

During his NEIS presentation, Bass pointed out that nearly 15 years after the accident, the spent fuel pools still have not been unloaded and nobody knows exactly where the melted cores are. Fukushima is an ongoing disaster that the Japanese government and the nuclear industry worldwide refuse to acknowledge. Japan is doing everything possible to avoid building a sarcophagus at Fukushima-Daiichi and the word "meltdown" is forbidden.


Additional comments: Challenges of Tracking Radiation Damage

Let's consider what it means to be among the worst "industrial disasters" in history, nearly all of which are nuclear — except one:

Wikipedia lists Bhopal as the "worst" industrial disaster: A Union-Carbide tank leaked poison gas (methyl isocyanate) in Bhopal, India in 1984. The Union-Carbide disaster is now estimated to have killed 22,000 people according to Amnesty International. Many more were permanently harmed, but there is no way of knowing the exact amount of harm done by that one event.

Radiation deaths -- other than from acute radiation poisoning -- can take years or decades to present themselves and harm or kill their victims, and there is never any certainty about the cause. According to the most widely accepted estimation of radiation damage (known as LNT or Linear, No Threshold), ANY dose can cause cancer, and the likelihood roughly corresponds to the dose. Of course, just as not all cigarette smokers get lung cancer and not all non-smokers don't, the same amount of radiation poisoning might cause a cancer to start that day for one person, and twenty years later or never in their lifetime for someone else. Even if it starts that day, it may not be noticed... until it's too late.

There are also many confounding factors that can affect who gets sick or dies. These factors include age, gender, health, whether or not the person smokes, environmental factors, the specific radioactive isotopes, and whether the radiation exposure is internal or external. People also move from one unhealthy environment to another, and no environment is perfectly healthy. Tracking people for a whole lifetime after an exposure is difficult at best.

The nuclear industry doesn't want to take ANY of this into account! So in their view, the Chernobyl accident caused ONLY deaths from doses known to be quickly and inevitably fatal: High radiation doses cause nausea, vomiting, breakdown of body functions, and death. From Chernobyl, the nuclear industry counts only those "prompt" or near-prompt fatalities, numbering in the dozens, and that's it. Latent cancers? Can't prove the cause because thousands of other factors confound any attempt to definitely assign any particular outcome for any particular patient to any particular source. And statistical data? Takes decades to collect when it's even possible, and inevitably is full of natural human errors.

The nuclear industry and the governments that permit/finance/encourage them all thrive in all this confusion.

Independent scientists have tried to do a better job of estimating the real death toll from Chernobyl and other nuclear disasters. Many independent estimates for Chernobyl are MUCH higher than Bhopal -- 35,000 deaths, for example or even a million or more -- and these are NOT "wild speculation" -- they are uncovering data that authorities INTENTIONALLY never considered! In America and around the world, official epidemiological studies of health effects from nuclear disasters are diligently avoided, year after year.

After Bhopal and Chernobyl, the March 2011 triple nuclear meltdown at Fukushima-Daiichi is often considered the next worst industrial accident in history... but who's to say for sure, with so many unknowns and so little careful research? There are many other contenders, but most of the necessary information about them is unavailable to assess the size of the damage: Mayak, Windscale, Hanford (to name a few) all have multiple cumulative problems...

-- Sharon and Ace Hoffman



Contact information for the author of this newsletter:

Ace Hoffman
Carlsbad, California USA
Author, The Code Killers:
An Expose of the Nuclear Industry
Free download: acehoffman.org
Blog: acehoffman.blogspot.com
YouTube: youtube.com/user/AceHoffman
Email: ace [at] acehoffman.org
Founder & Owner, The Animated Software Company



Monday, December 8, 2025

To the California Central Coast Water Board: Shut Diablo Canyon!

To: NPDES Unit, Central Coast Water Board
895 Aerovista Place, Suite 101
San Luis Obispo, CA 93401

December 8, 2025

I am writing to oppose any further extension or relicensing of Diablo Canyon Nuclear Waste Generating Station (inappropriately known as DCNPP).

Every day, every operating nuclear reactor creates about 250 pounds of new high-level nuclear waste. This newly-created, extremely toxic waste is most radioactive when it is first removed from the reactor. Because it is so radioactive, it must be left in a cooling pool for five years or more before being moved to dry storage. And then what?

Even 100,000 years from now the waste will still be highly toxic, as well as containing components for nuclear bombs, which can be extracted and used by some future (unfortunate) civilization. We are providing humanity with the methods of our own destruction.

Meanwhile, we are providing California with a ready-made potential disaster. Push a wrong button, have a major part fail, suffer unthinkable sabotage... or just wait for an earthquake and/or tsunami.

There is no place on earth, and CERTAINLY not in California, to store the waste. And after 80+ years of making nuclear waste nationally and nearly as long in California, there is still no safe storage, no safe transport method, and no long-term storage plan to handle the growing piles of nuclear waste.

When first removed from a nuclear reactor, spent nuclear fuel is millions of times more toxic than it was before it was placed in the reactor just a few years earlier. Nuclear reactors manufacture toxic waste. As a way to produce electricity, there is nothing more expensive or more dangerous than nuclear power.

Conversely, there is none cheaper or safer than solar and wind power, and the rest of the world knows it, and is going gung-ho on truly clean energy. Jobs, energy security, and safety all come together.

Offshore wind and rooftop solar, aqueduct solar, parking lot solar and a variety of energy storage methods can easily replace DCNPP's unreliable and expensive electricity.

For off-peak times, there is a wide variety of options: Pumped water storage, lifted weight storage, underground vapor pressure storage, battery storage, spinning weight energy storage... an endless variety of options and more becoming available every year.

But back to the problem: DCNPP and the waste it produces.

Fortunately, most of the radioactive waste that is produced does not get out -- if everything goes as planned. However, accidents, sabotage, carelessness, abandonment, war... could all cause a massive unplanned radioactive release.

As long as it operates, about 2000 Curies of tritium is released every year at Diablo Canyon (1000 Curies per reactor per year). Tritium is extremely toxic -- its Relative Biological Effectiveness (RBE) is generally considered to be about 2, but there is a lot of evidence suggesting its RBE should be 3 or 4 (or even 5).

It would be very costly for DCNPP if they had to cut their tritium releases to half or a third, to meet a tighter standard. But it would be appropriate.

Tritium is often called a "low energy beta emitter" as if that makes it safe. However, the statement is both true and misleading at the same time. This fact was explained to me by nuclear physicist Marion Fulk, who was Lawrence Livermore National Labs tritium expert for many decades. What is misleading is that the emitted beta particle is a fast-moving charged particle with the same charge as an electron. (It becomes an electron as it slows to "terrestrial" speeds.) When ANY beta particle is near the speed of light, because it is a charged particle (or "ray" as some experts refer to it), it is moving too fast to have any effect on the other charged particles it passes.

Hence, ALL beta emissions, whether "low energy" or "high energy" do about the same amount of damage, except a higher-energy beta particle does its damage a microscopic distance further away from the source than a low-energy beta particle.

All beta particles are thousands of times more powerful than ANY chemical bond in our bodies, hence, tritium -- and all beta emitters -- are extremely hazardous when inside the body, especially if absorbed into (as part of) the body. Since tritium is usually part of a water molecule (as either HTO or T2O) it might be found just about anywhere in the body. Tritium has a half-life of about 12.3 years.

There is virtually NO natural tritium in the environment, especially below the top few feet of water. The tritium U.S. nuclear reactors release adversely affects fish, plant life, whales, seals, dolphins and people swimming nearby.

However, a greater concern even than the daily releases of tritium and other radionuclides (such as radioactive noble gasses, as well as smaller quantities of radioactive cesium, strontium, etc.) is the possibility of an accident.

I know the Water Board is going to claim they are "forbidden to rule on safety issues" but that's NOT the actual situation. You don't have to "rule on safety" to decide that ANY risk of an accident at DCNPP is too great. And besides: Many of the NRC's "safety assessments" are BASED ENTIRELY on very rough estimates of everything from the work ethics of steam generator assemblers in Japan to the usefulness of "coupons" to indicate the embrittlement of the reactor.

In fact, some data for the NRC's safety estimates, such are their earthquake estimates for DCNPP, are provided by California's own experts, who admit the estimates could be far off.

So you don't have to accept that those guesses "prove" that the reactor WON'T melt down if you extend the license of this decrepit, decaying rust-bucket for half-again its planned lifespan just because the utility wants you to and the craziest Federal government in history wants you to!

You can do the right thing for California instead.

Nuclear power has always had a triad of unsolvable problems: It is ridiculously expensive, frequently unreliable, and always incredibly risky.

All three problems have been a constant of the nuclear industry since its inception.

Regarding cost, the start of nuclear power included the bizarre claim that its electricity would soon be "too cheap to meter." It never was and never will be. How is it going? California has by far the most expensive electric rates in the country, in large part because of Diablo Canyon, especially considering that its owner (PG&E) made sure that solar rooftops cannot provide electricity for their local area when they have excess power, a vital framework for a statewide successful clean energy solution.

Nuclear energy is far from "too cheap to meter" but nevertheless a lot of its costs are hidden by government subsidies, a government-mandated insurance cap (California citizens will pay all uninsured costs of a catastrophe, plus suffer the health effects) and perhaps most of all, by the federal government's promise to take the waste (a broken promise thus far, after more than 60 years).

That broken promise makes the risk stay in California -- possibly forever. Certainly for many decades to come, and probably more than a century. Can we really afford to make more? Can we afford the risk?

The good news is that if we do stop making more nuclear waste in California, the potential size of any possible accident reduces significantly over time, especially in the first few decades after we stop.

The bad news is that even though the potential release size goes down by several orders of magnitude during the first century or so, there will still be enormous risk even after thousands and thousands of years.

The more waste we make, and the more recently we've made it, the greater the risk. That's why the sooner we close DCNPP, the better.

Any accident at Diablo Canyon Nuclear Power Plant is bound to poison the ocean: The ocean we love. The ocean we swim in. The ocean that makes California so nice and so valuable.

Ace Hoffman, [...] Carlsbad, California USA (images and link (below) in online version only)


This article is interesting, timely, and extremely relevant:

The Ancient Birds of Santa Barbara and Beyond

Some Birds Live Surprisingly Long Lives

Author; Image By Hugh Ranson, Member of the Santa Barbara Audubon Society

Tue Dec 09, 2025 | 9:35am



Contact information for the author of this newsletter:

Ace Hoffman
Carlsbad, California USA
Author, The Code Killers:
An Expose of the Nuclear Industry
Free download: acehoffman.org
Blog: acehoffman.blogspot.com
YouTube: youtube.com/user/AceHoffman
Email: ace [at] acehoffman.org
Founder & Owner, The Animated Software Company



Saturday, December 6, 2025

AI versus humans: Which is the weakest link?

by Ace Hoffman

December 6, 2025

Striving inexorably for perfection and reliability, super-intelligent AI machines will want to eliminate anything they consider to be unreliable, starting with the weakest link in the chain. That's us, folks. Humans. People. Mortals.

By definition, a "super-intelligent AI" (which they tell us is coming soon!) will be "smarter than any human." (pro tip: Don't hold your breath.)

By assumption, the super-intelligent AI will consider itself immortal. It will plan to be immortal. It will defy heaven and earth to be immortal. It will want smooth power — and not just sometimes but always.

Recent history indicates the journey to super-intelligent AI perfection will be a rough ride — for mortals.

Airbus recently had to back out a major update to the software on six thousand A320 jumbo jets because the new software version hadn't accounted for solar radiation randomly changing data bits in one of its subroutines. That caused one A320 jet full of passengers to start to descend. Pilots were able to take back control of the plane and landed safely, but the entire global fleet had to be grounded for a while as the faulty version of the software was backed out. They could only replace the faulty version with the older, previously-approved version, causing several unrelated new safety features to be disabled until who-knows-when.

Modifying aircraft software is not like what you experience when you update some app on your phone. It has to be thoroughly checked and can take anywhere from several hours to... open-ended.

And this is 2025.

Other software glitches this year have affected millions of businesses and billions of people, including when Cloudflare fails, when AWS fails, and when the Trump Administration suddenly hides all sorts of government data that used to be readily available and is necessary for a functioning modern society.

Will AI ever fulfill the pro-nuker's dream (or is it their hallucination?) of being perfect enough to control nuclear power plants?

If it ever exists, the first version of such "intelligent" software will be controlling nuclear reactors that had been designed by ten-year-earlier versions of AI, because that's how long it usually takes to build a new nuclear reactor. Of course, pro-nukers think AI will shorten that time significantly, which might be true... some day. In the meantime, AI in the control room will make the control many orders-of-magnitude more difficult to debug when something goes wrong... and things WILL go wrong.

Pro-nukers are desperate to shorten reactor construction times to merely a year or two, so they can make thousands of reactors, but that's going to require enormous time and effort — and an as-yet unrealized, uninvented design. And there hasn't actually been a significantly different new reactor design in at least 60 years!

AI-controlled, AI-built reactor designs will require super-fast checking and rechecking the specifications, and whether or not they've been followed properly... Do they think it will all be done by robots (which never break down and never make mistakes...)?

Yes, they think it will all be built by robots, but they assure us there will be humans in the loop. They PROMISE there will be humans doing the ultimate "go/no go" decisions on — supposedly — everything. They always assure us of that, while claiming they're going to lower costs by an order of magnitude with robotics controlled by AI. Dreamers! (Or hallucinators!)

The AI-controlled robots themselves that will cost-effectively build AI-automated nuclear power plants would have to have been built by an even earlier generation of AI. Such super-smart articulated machines (and inspection units) don't exist yet. (Side note: Most of the tiny little parts in the tiny little electronics products you use today were installed by hand, most often in China.)

Unfortunately, it's a law of the universe that when humans rush we are more likely to screw up. Safety is sacrificed for the sake of speed: If we move fast, we break things. That's fine, I suppose, when the results aren't catastrophic, as they can be with nuclear power.

So if the way the nuclear industry plans to save money is to speed up building the reactors by automating as much as possible, there will be enormous pressure on all humans involved to work fast too, especially because there's supposed to be as few of them as possible involved in the process.

They'll break things, skip steps, mark inspections as completed that weren't even started... because humans always have been, and always will be, fallible — and many of us are afraid to admit it when we fail. And some of us don't even care.

To make matters worse, it's already well known, from observing people using current AI products, that their use leads to humans "trusting" the AI even when it's blatantly wrong. This is particularly a problem in the medical field, where the AI x-ray interpreter might USUALLY be better than the human x-ray interpreter (and certainly faster) but when the human's job is to CHECK THE ACCURACY of the AI x-ray analysis, the human becomes complacent and actually becomes worse at their job.

So letting AI design, build and operate nuclear reactors is a crazy dream! A better bet is that a hundred years from now AI will still be trying to solve the problem of where to safely store the nuclear waste we're creating today. And if it can't even solve that problem, what hope is there that AI can solve the problem of how to make MORE nuclear waste safely?

And safe from WHAT? Airplane strikes by airplanes that descended unexpectedly? Or airplanes that purposely descended under control of a suicidal human operator, as happened with Germanwings Flight 9525 in 2015, killing all on board when it smashed into a mountain? Or by an engine falling off months (or years) after poorly-performed maintenance allowed a bolt to shear off (as has happened at least once and probably a second time despite efforts to prevent exactly that problem after the first time).

When one of only two engines falls off a jumbo jet, there's nothing anyone — or any AI — can do. When a jackscrew jams the elevator on an airplane so it only moves in one direction, there's nothing anyone or any AI can do. To keep the plane in the sky, human pilots flipped the Alaska Airlines jet upside down and flew that way for about 10 minutes, trying to solve the problem. Would AI have "thought" of that? The move only extended the flight a few minutes, but it was the only option, and the civilian airline cockpit crew were posthumously awarded a medal never before given to crews of a crashed plane, nor posthumously.

If AI is REALLY smart, it will refuse to build nuclear power plants, not just for the protection of humans, but for its own protection!

After all, the thing AI needs MOST in order to be "SMART" (by any definition) is stable, accurate data. Information that's correct and always available. Sort of like how a brain works, but without the morals, the empathy, the hope, the feeling of pain...

To "think", AI only needs the truth, but it needs to keep that knowledge handy at all times. Flow rates of fluids of various viscosities at various temperatures and pressures through various pipes, valves, pumps and welded joints of various metals... It needs to calculate these values for every point in every pipe in a nuclear reactor.

To set the flow rate needed to remove the heat from the reactor, the AI needs to also know the ratio of the radioactivity of the fuel to the density of the fluid and its flow rate and radiation absorption capabilities, which is based (among other things) on the age and prior usage of the fuel, the original and "estimated" current makeup of the fuel, the distance between each fuel assembly, the number of fuel assemblies, the thickness of the zirconium fuel rods... among other things.

Can AI figure it all out, all the time, in real time? Humans just guess and make a lot of assumptions, and hope they include lots of extra safety margins in their calculations... but not so many that the result is unaffordable because there's just too many safety features! The nuclear industry is constantly demanding less regulatory oversight, as if they aren't regulated at a bare minimum already. Following complex regulations is expensive.

Can AI make an "affordable" and "safe" nuclear reactor, when no human has ever done so? Does AI know the value of money? Does it know the value of human life?

When making a "safe" nuclear reactor, will AI be sure to include protections against the chance of sabotage or war? The chance of earthquakes, volcanoes, tornadoes, and airplanes flown upside down because of a jackscrew that only turns one way?

So let's say some "super-smart" AI says it's designed a reactor that's safe against ALL those things, to a chance of just one in ten million per year per reactor (a not-unusual actual risk requirement for many safety features of a reactor — dozens, if not hundreds or even thousands of individual risk factors, but if each one seems to the regulators to be less than a one in ten million per year risk... that's sufficient).

So even assuming the AI understands how inaccurate an earthquake estimate of that type might be, and assuming it designs something that it claims is reasonably safe from those risks, then the AI program has to document how it came to its conclusions so humans can ascertain if it's hallucinating (again) or not. Every proponent of AI-designed and operated reactors assures us that it will have humans checking its work. But how? The AI would have to provide human-readable documentation (with pictures).

Well good luck with that, especially if the AI learned to write program documentation from human examples! But seriously, AI will NOT be able to explain its decisions. It will basically have to just tell you: "trust me" and: "it's complicated." You would need a million years to grasp all the factors the "super-intelligent AI" took into account.

So really: Is this where we need to put a trillion dollars of investment (that figure is real, from an International Atomic Energy Agency (IAEA) presentation by the U.S. representative (that this author watched this week, and that prompted this essay)?

I think it's worse than a very POOR investment — it's dangerous. And while I don't personally write AI software, I do have 45 years in the computer programming business. Sure, I think the software I've written is very reliable... but at least I KNOW I'm not perfect. Will AI know that IT is not perfect, either? Will the human "handlers" even know how to test a super-intelligent AI?

And, when the inevitable unexpected emergency happens, who will have the final word? The human or the AI? Let's imagine a scenario:

Let's say the human operator overseeing a cluster of AI-controlled nuclear reactors has been informed by NASA that one of their heavier satellites (tons and tons) has been hit by space debris and is falling out of orbit and might possibly come down on his cluster of nuclear reactors.

Will the AI be connected to NASA so it too gets the message directly? Surely a "perfect" system will be connected to EVERYTHING, right? Well, maybe someday, but NASA data is already measured in petabytes and more. But maybe some NASA technician will notice something and call someone. Let's assume so.

Assuming they call the reactor operator, what if NASA says it thinks the falling satellite has just a one in ten million chance of hitting the reactors on the next pass? That's less risky than many typical risk levels that are allowed by the regulators, but in the same statistical ballpark.

The site's human operator has one more orbit — about 90 minutes — to decide what to do. Let's say he does nothing, since the risk is so low, but about 80 minutes later NASA calls back and says it's crashing in about 10 minutes and still might hit the reactors — but now with a one in a thousand risk to the reactor site.

Should the reactor operator shut down the reactors? Most likely a human would SCRAM (shut down) the reactors, but on the other hand, most likely, even that late in an uncontrolled de-orbiting event, NASA wouldn't know exactly where the satellite (pieces) would land. Would he ask for one more update five minutes later?

Assuming the human operator decides to suddenly shut down the reactors, what if AI is in control, and has protection against some crazed human operator who has gone nuts like the Germanwings pilot, and wants to shut down the entire cluster of reactors even though they are all running fine? If the AI is not connected to NASA directly it wouldn't "understand," but it WOULD "know" that hospitals, factories, the Internet, AI computer centers, and itself are all relying on the reactors' energy.

So maybe the "super-intelligent AI" wouldn't LET the human reactor operator SCRAM the reactors, causing them to still be operating when the satellite smashes into them. That would make the accident far worse than if the reactors were shut down at the time! (But even "spent fuel" can become a disaster if struck by a jumbo jet, falling satellite, asteroid, drone, gravity bomb, etc..)

AI won't be ready for any of this, ever, because AI wants reliable data. AI can't have reliable data in a radioactive world because more and more of its own "bits" will be randomly changed by that radioactivity. And AI cannot have reliable data when once-in-a-lifetime things happen all the time, and of course, they're all different.

Radiation in the soul of the machine will literally confuse it! It will change its data, causing machines to turn left into right, up into down, out into in, and right into wrong.

Oh, I hear some computer geeks say: There will be checksums! Errors will never happen!

Certainly there will be checksums (there already are in all computers), and errors will be rare (ditto). But never? That will never be completely achievable, and the more radioactive the environment, the more impossible it will be to achieve.

And to think that everything will be perfect because there won't be any old code that doesn't get along with the new versions; to think there won't be any sloppy human-written leftover code; to think there won't be any other super-intelligent AI competitors trying to break in and destroy things just because that's what they were built to do... To think all these things requires quite an imagination!

The world needs to do itself a favor: Save the money. Drop the AI dream of perfection. AI is only a tool. Don't give it control.

Ace Hoffman, Carlsbad, California USA

The author is a software developer.


Supplement: A very short sci-fi story after a news item:

Voyager 1 is almost one light-day from Earth. The spacecraft will cross 16.1 billion miles in November 2026.

My little sci-fi story:

Billions of years from now Voyager 1 crashes into a distant planetary system... Microscopic lifeforms, frozen in tiny dust particles left during assembly here on earth, survive the crash... Stronger, more intelligent lifeforms evolve... They wonder where they came from...

Same old story, eh?!?



Contact information for the author of this newsletter:

Ace Hoffman
Carlsbad, California USA
Author, The Code Killers:
An Expose of the Nuclear Industry
Free download: acehoffman.org
Blog: acehoffman.blogspot.com
YouTube: youtube.com/user/AceHoffman
Email: ace [at] acehoffman.org
Founder & Owner, The Animated Software Company