"Fukushima Daiichi Accident: Official figures show that there have been 2313 disaster-related deaths among evacuees from Fukushima prefecture. Disaster-related deaths are in addition to the about 19,500 that were killed by the earthquake or tsunami."
According to the "World Nuclear Association" (mission: to facilitate the growth of the nuclear sector by connecting players across the value chain, representing the industry’s position in key world forums, and providing authoritative information and influencing key audiences)
It would be a good idea to actually read the source you're quoting to see if it supports your case.
> 2313 disaster-related deaths among evacuees from Fukushima prefecture*, that were not due to radiation-induced damage or to the earthquake or to the tsunami, had been identified by the Japanese authorities. About 90% of deaths were for persons above 66 years of age. Of these, about 30% occurred within the first three months of the evacuations, and about 80% within two years.
> The premature disaster-related deaths were mainly related to (i) physical and mental illness brought about by having to reside in shelters and the trauma of being forced to move from care settings and homes; and (ii) delays in obtaining needed medical support because of the enormous destruction caused by the earthquake and tsunami.
If, instead of the nuclear power plant, Japan had deployed photovoltaic panels or wind turbines, the evacuation would not have been necessary and some of these people would have survived.
According to the then Prime Minister nuclear experts announced to him, while the accident was unfolding, that "The reactors' accident could, in the worst case, have caused the evacuation of the entire population living within a radius of 250km, including Tokyo, a total of 50 million people"
https://en.wikipedia.org/wiki/Naoto_Kan#In_media
Only the three least powerful of the six reactors were in operation at the time of the accident. Reactor #4 was off and unloaded.
Approximately 80% of the released cesium-137 (half-life: 30 years) was dispersed eastward by winds and deposited in the Pacific Ocean (far from human settlement), where the enormous volume of water and strong currents reduced its concentration. Other studies, such as those by Yasunari et al., confirm these undisputed facts, which are also accepted by nuclear agencies.
> making a profit by selling valuable nuclear energy
EDF adjusted economic debt at the beginning of 2026: €81.7 billion
After decades of massive help (nationalisations building it, monopoly, gift-loans, debt cancellation...
> the profitability of solar operators will sink to the ground due to the overcapacity causing negative price
Wait for storage (V2G...) and hydrogen to kick in.
> France
> Germany
France's transition to nuclear power began in 1963 and is now complete.
In other countries (Germany...), transitions to renewables began with the advent of their industrial versions, around 2005. The current context makes these transitions more challenging, and they are still underway.
Therefore, any comparison of their results, for example, greenhouse gas emissions, must be based not on snapshots (which currently favor France since its transition is complete), but on their progress: speed, costs, impacts, etc.
> decades of massive help (nationalisations building it, monopoly, gift-loans, debt cancellation...
I start seriously question your intellectual honesty here.
- For the last 2 decades, EDF was privatised and give back to the state an average of 2bn€ per year in dividende [1]. That is currently EDF giving to the state, not the opposite.
- The monopoly situation in France was ended in 2007. The loi NOME in 2010 even offred to the competitor of EDF an access to nuclear energy at fixed low price [2].
Worth to note that when the Energy crisis spiked in 2022, the same 'competitors' sent back their customers to EDF because they massively increased their price and did not want to follow the TRV.
> hydrogen to kick in.
Nobody sane of mind and reasonable take hydrogen and Power2Gas seriously in the energy sector: The law of physics simply play against it.
The general efficient is low (practically around 50%), the electrolizers strongly hate the spike style usage pattern necessary for a coupling with intermittent energy, and no installations of the required scale has even been tried.
The only reason this is still on the table is because it gives the gaz industry a reason to drain public subsidies and some hope to stay relevant.
> France's transition to nuclear power began in 1963 and is now complete.
Thats also wrong.
The Messner plan started in 1974 and France was other 55% of electricity production provided by Nuclear in 1985. It finishes with over 50 reactors in 15 years to cover up more than 70% of the electricity generated [3]
The cost of the plan Messmer was estimated at 100bn€ in 2012 money.
Germany started their energiewende in 2005 and 20 years later and 400Bn€ burned, they still do have a CO2/kwh intensity 4x higher than France in the 80s.
The results are so bad that Germany started to subsidies its own industry to protect them against electricity price increase [4]
The return on state capital endowments, ranging from 3% to 6%, represents a low real return, significantly lower than the theoretical rates of 8% or 9% (excluding inflation) projected at the time by the General Planning Commission for public enterprises (page 33). Handouts!
The payment of meager dividends is sometimes cancelled or postponed (2015, 2016, 2017, 2019: https://www.latribune.fr/economie/france/edf-l-etat-va-renon... ), or partially made in the form of EDF shares ("in securities", for example between 2016 and 2022) therefore in monkey money because it does not replenish the public coffers at the time or later: EDF is very indebted and the bulk of its assets (nuclear power plants) are unsellable.
> loi NOME in 2010 even offred to the competitor of EDF an access to nuclear energy at fixed low price
'Low'? Nope. It happened in 2012 and this price was set at €42/MWh
The total production cost of a MWh in 2010 was €22 (see the French Court of Auditors' report "The Costs of the Nuclear Power Sector," page 81). Since the existing generation fleet is considered fully depreciated, the €20 difference covers the extension of its operating life (Grand Carénage) and the renewal/expansion of the new nuclear power plants (EPR series).
Nope: hydrogen vehicles are easy to criticize because the mass and size of the tank are prohibitive, and compression significantly increases the cost.
This leads some to condemn all forms of hydrogen use. However, in the case of backup power, not having to store it in a small mobile tank or even transport it, and therefore being able to store it in a stationary industrial tank (where mass and volume are relatively unimportant), is not only possible but already being achieved (record: Air Liquide, and the competition is intensifying) and, incidentally, improves efficiency.
Efficiency:
- Electrolysis (PEM or alkaline): 0.75
- Storage: 0.95
- Conventional combined cycle turbine (gas + steam) with efficiency similar to that achieved with natural gas: 0.6
Overall: approximately 0.4 (just like a very recent nuclear reactor, and without any waste-producing fuel...)
> electrolizers strongly hate the spike style usage pattern necessary for a coupling with intermittent energy
See PEM.
> no installations of the required scale has even been tried
Indeed, however all components are ready.
> France's transition to nuclear power began in 1963 and is now complete.
> The cost of the plan Messmer was estimated at 100bn€ in 2012 money.
This is the sole building cost. R&D is estimated at 55 billions (1945-2010) and the Court wrote that it is very difficult to assess, (page 35, footnote) "the scope of analysis does not cover research expenditures in the military field, nor those related to basic research.".
The cost of the energy transition in Germany is sometimes cited as €300 billion, €500 billion, or even €1.5 trillion.
These figures are worthless because no reputable source publishes a specific figure along with the scope of the project (some aspects of the investments needed for the electricity grid are independent of the energy source) and at least a timeframe.
These figures are actually projections published by various sources, covering distant deadlines (2050, etc.) and the entire electricity system, including non-renewable energy sources (whose additional costs are often overestimated).
> EDF nuclear fleet is highly profitable with around 92TWh exported in 2025
Nope. Electricity exports are officially exported at a loss, since the average price per MWh exported is generally slightly lower than the average French spot price ( https://assets.rte-france.com/prod/public/2025-04/2025-04-09... , page 87). According to the sound approach established by Mr. Boiteux, this price must compensate for production costs as well as investments.
The average market price is decreasing because the renewable energy sector is expanding across the continent, thus supplying more and more electricity at a production cost that is increasingly lower than that of nuclear power.
According to RTE, France will export 92.3 TWh in 2025 (page 75), paid €5.4 billion (page 15), meaning that the average price per MWh will be €58.7. However, this renewable energy sector (considered fully amortized) will produce electricity at a cost of €60.3 according to the CRE (which considers it fully amortized and therefore neglects the bulk of the investment), and at around €78 according to EDF ( https://www.edf.fr/sites/groupe/files/epresspack/6300/CP_Con... ), which wants to build EPR2 reactors and therefore needs to have the necessary funds.
In short, France is exporting at €58.70 a year when it needs to sell for at least €78 to finance its future reactors, thus "using up" its current fleet without setting aside enough money to replace it.
Worse still: if the costs of the EPR2 reactors exceed forecasts, as all EPR construction projects (Finland, France, China, and the UK) have done, the deficit will increase even further.
Fixed costs (investments, maintenance, depreciation of the EPR alone, etc.) are by definition paid whether the fleet produces or not. Therefore, exporting at a price higher than the variable costs (paid only if the plant produces) is a lesser evil because the difference covers a portion of the fixed costs: it is less expensive to export at a slight loss than not to produce and lose more (in technical terms: the gross margin helps cover fixed costs).
However, claiming that nuclear power is profitable simply because of electricity exports is misleading, and the ideal solution would be to produce electricity at the lowest possible cost, therefore using renewable energy sources.
Furthermore, a portion of France's electricity is generated from renewables, so attributing exports solely to nuclear power is misleading.
Too many things are left unsaid => too many assumptions. As usual, even with human beings specifications are key, and context (what each entity knows about the other one or the situation) is an implicit part of them.
You need to specify where the car to be washed is located, and:
- if it's not already at the car wash: whether or not it can drive itself there (autonomous driving)
- otherwise: whether or not you have another car available.
Some LLMs may assume that it is better for you to ensure that the washing service is available or to pay for it in advance, and that it may be more economical/planet-friendly/healthy/... to walk, then check/pay, then if OK to drive back.
Nothing so deep as that needed here to understand what is going on; it's a paid vs free issue - free versions are less competent while paid versions of the reasoning/thinking models are getting it right. Different providers may hobble their free versions less, so those ones also get it right.
The guardrails you have outlined will help squeeze out more performance from smaller/less capable models, but you shouldn't have to jump through these hoops as a general user when clearly better models exist.
I know about it, affected components were replaced. They still built it relatively on time and on budget
"On 7 February 2014, the Nuclear Safety and Security Commission declared that its investigation since mid-2013, they found eight cases out of 2,075 samples of foreign manufactured reactor components that were supplied with fake documents."
Nope. 7 years late (plan: 2017, last reactor diverged in 2024).
Total cost not known, at least 24.5 billion USD and maybe up to 32 according to Bloomberg (plan: 20). Koreans are even fighting: KHNP (a subsidiary of KEPCO, the company building the plant) officially seeks for about 1.2 billion USD in compensation ( https://www.businesskorea.co.kr/news/articleView.html?idxno=... ) and it may worsen up.
8bn/unit is successful considering fla3 was 23bn. 8y/unit is successful, several in parallel with 1y distance, considering fla3/vogtle took about 20y.
Yes. It is a success.
Korea also announced they plan to build two additional reactors domestically by 2038
I've seen what a success Energiewende was. Really top notch execution to spend more than the entire french fleet and after 25y to have much worse emissions, while planning to have 80GW gas firming per Fraunhofer ISE to cover under generation periods
> 8bn/unit is successful considering that FL3 was 23bn.
Yes, a failure is better than a disaster. As we say in France, "in the land of the blind, the one-eyed man is king."
> Korea also announced their plan.
For 25 years, numerous announcements of this kind have been made by many nations, without any real intention of following through, and for various reasons (electoral considerations, will to create competition for renewable energy suppliers, etc.).
Only projects that are actually starting (on the ground) provide a good indication.
> Energiewende
> spends more than the entire French fleet
On the one hand, France's transition to nuclear power began with the first industrial nuclear power reactor (dubbed "EDF1") in 1957. In 1959, the project for the power plant that would be completed in Chooz in 1967 began, and as early as 1964, nuclear power was presented to the public as the energy source that would take over in 1975 (correctly predicting that in Europe it would produce 25% of electricity 20 years later: https://www.youtube.com/watch?v=v6Xfu8u3Yqw).
This nuclearization lasted approximately 40 years.
Furthermore, nuclear power did not replace a huge set of existing electricity-producing sector, such as coal in Germany, because in 1970 France produced about four times less electricity than at the end of its nuclear power deployment: https://ourworldindata.org/grapher/electricity-production-by...
In short: comparing France's nuclearization with the Energiewende is extremely difficult, and a direct comparison absurd.
> planning to have 80GW of gas-fired power plants
In early 2026, Germany announced it would deploy new gas-fired power plants. The impact depends on the corresponding emissions. If they are only all active for a few hours a year to get through critical periods and (as planned) replace coal or primarily burn green hydrogen, for example, then it will be progress (reducing emissions). The best-case scenario is a full renewable fleet but Rome wasn't built...
1- 8bn/unit is pretty acceptable if you adjust for capacity factors and compare to solar projects in say Germany that would on avg deliver same power per year and even better if you want firm power.
2- announcement is recent and made by a somewhat antinuclear PM which changed the course seeing that ren alone are not sufficient. It's in the context when Korea will soon finish 2 units locally. In fact if for some reason govt will change there, plans will probably accelerate
Why should I read a nonsensical antinuclear article by a rando on the internet when there are official numbers from court of auditors? The numbers of french nuclear program are available. And even if you bump them by 50%, it'll still be cheaper than german EEG expenditure alone and the difference only grows
"This nuclearization lasted approximately 40 years." But messmer plan took much less. We are talking about accelerated deployment and spending. France beat Germany in both. Or maybe we should start counting for germany from the moment first solar panel was deployed there instead of Energiewende proposal? It'll make things look even worse. A direct comparison isn't absurd. Numbers are known in both cases and you clearly want to ignore them. Talking about french prosperous period when DE is biggest EU economy is strange too.
To say gas plants will burn hydrogen when merely 25% mix is already worse economically than failed nuclear projects like Vogtle is at least laughable. The announced gas plants dont match the numbers demanded by Fraunhofer, mostly because EU rules dont allow that. So basically germany is stuck in a strange position where it needs firming but it cannot build it.
Again, France spent considerably less and did the job much faster while Germany still struggles while it's best hope is to have some magical cheap hydrogen to replace gas...
Deeming dispatchable power necessary was valid as long as the technical means (long-distance, high-capacity transmission, smart grids, energy storage, network management software capable of reacting quickly enough and optimizing the system, voltage stabilization and current frequency synthesis tools, etc.) that would have allowed for a mostly non-dispatchable way to generate electricity were too expensive, insufficient, or simply nonexistent.
Now these means exist, and experts assert that it is no longer necessary to deploy a large proportion of dispatchable generation capacity. Therefore, from a technical standpoint, an electrical system based on renewables with the largest resources (wind and solar, which are not dispatchable) is feasible: https://cleantechnica.com/2022/07/25/will-renewable-energy-d...
> compare to solar projects
"With the cost of storing electricity at $65/MWh, storing 50% of a day’s solar generation for use during the night-time hours adds $33/MWh to the total cost of solar. The global average price of solar in 2024 was $43/MWh. Turning this cheap daytime electricity into a dispatchable profile that is closer to an actual demand profile, would therefore result in a total electricity cost of $76/MWh."
https://ember-energy.org/latest-insights/how-cheap-is-batter...
The total cost of nuclear power, even when building and managing waste without exceeding the budget, even without accidents, even without uranium supply problems..., is already much higher than that.
He's dead, Jim.
> 2- announcement
> plans will probably accelerate
> Why should I read a nonsensical antinuclear article by a rando on the internet
It is sourced (or you may pinpoint what isn't).
> when there are official numbers from court of auditors?
The referenced article quotes thems!
> even if you bump them by 50%, it'll still be cheaper than german EEG expenditure alone
The cost of the energy transition in Germany is sometimes cited as €300 billion, €500 billion, or even €1.5 trillion.
These figures are worthless because no reputable source publishes a specific figure along with its scope (some aspects of the investments needed for the electricity grid are independent of the energy source) and at least a timeframe.
These figures are actually projections published by various sources, covering distant timeframes (2050, etc.) and encompassing the entire electricity system (including non-renewable energy sources).
We had the same sort of propaganda in France, then EDF (Big Chief of the French nuclear sector) boss stated in public that about 50% of the projected network-related costs are not tied to renewables ( https://www.youtube.com/watch?v=jEdQz3hGlf0&t=328s ).
> "This nuclearization lasted approximately 40 years." But messmer plan took much less.
> Numbers are known in both cases and you clearly want to ignore them.
The afore-referenced articles states and sources facts and data. You don't.
> Talking about french prosperous period when DE is biggest EU economy
'Prosperous' is more-or-less 'density', not extension. This past prosperity (massively benefitting to the Messmer Plan) is an historical indeniable fact ( https://en.wikipedia.org/wiki/Trente_Glorieuses ).
> gas plants
> hydrogen when merely 25% mix is already worse economically than failed nuclear projects like Vogtle
This is not valid as in this context those hydrogen plants are prototypes, while Vogtle (and other recent projects aiming at building nuclear reactors) are theoritically mastered since the 1970's (Messmer Plan...).
> The announced gas plants dont match the numbers demanded by Fraunhofer, mostly because EU rules dont allow that. So basically germany is stuck in a strange position where it needs firming but it cannot build it.
Indeed, and it may imply that more coal will be burnt. This is ridiculous.
> magical cheap hydrogen
This is indeed a bet, but a non-inept one ( https://www.spglobal.com/energy/en/news-research/latest-news... ), especially as the amount of electricity overproduced by renewables, reflected by episodes of low or even negative spot prices, is constantly increasing.
An accident spreading hazardous substances over a large geographical area that are difficult to contain (or waste of this type) is unique to nuclear power; no renewable energy source poses such a threat.
Another problem is the urgency (due to the impacts) combined with the difficulty of modifying power plants as required by "lessons learned," in other words, bug fixes. Modifying or repairing solar panels or wind turbines is easier than working on a reactor and results in a smaller reduction in the plant's output. The effects of this are significant.
The number of victims (and more generally, the health impacts) of nuclear power depends on the method of analysis, which is controversial. This is true for Chernobyl and Fukushima, where the evacuation triggered by the nuclear accident officially caused 2,202 deaths (2019 count), and 2,313 according to the International Nuclear Association.
Even the maximum potential impact of an accident is debated.
The full impact of nuclear power will at best only be known after all dismantling is complete and the last cold waste is disposed of (before this deadline any mishap or stray waste can be costly), in a few thousand years.
renewables are still made from different substances, one of which is copper. One byproduct of copper is extremely toxic- arsenic, and it's spills are not that different in terms of dangers. That's the point. For nuclear at least, over time decay happens, esp for most dangerous isotopes, but for chemical waste - it's forever.
Nuclear still has higher capacity factor than any VRE.
Evacuation numbers for Fukushima are accounted in the stat. But it's also worth mentioning Japanese govt acknowledged most of the deaths are caused by extreme evacuation measures that werent needed, but govt ignored the data it had to enforce them. The panic against nuclear caused them, not radiation.
Arsenic: this only plays during mining (recycling is OK), and efficient measures are already in place (where and when was it a problem, and at which extent?)
> capacity factor
So what? Capacity factor (or another similar quantity such as physical efficiency, operating life, etc.) is a salient criterion in the case of equipment consuming materials or fuel without recycling them, or producing waste in quantity or in the long term that is dangerous... therefore does not concern nuclear power but hardly concerns renewables.
A low yield makes deployment more expensive but, considered alone, is not prohibitive: a mix of renewables producing adequately (quantity, permanence, impacts, total cost including recycling, etc.) is a good solution whatever its yield.
> most of the deaths are caused by extreme evacuation measures that werent needed
This is disputed and the real amplitude of the threat was not known during the nuclear accident. The tiny evacuation ordered was minimally cautious as experts predicted, during the accident, that the worst cast would imply evacuating up to 50 millions persons: https://en.wikipedia.org/wiki/Naoto_Kan#In_media
There are some very recent arsenic spills events in copper mines...
Nuclear fuel can be recycled, just like renewables. It's mostly not done because it's cheaper not to, just like in renewables
The danger was known based on multiple data points. Japanese govt ignored them. And they acknowledged evacuation was not necessary in the way it was implemented
Capacity factor is important to understand how much firming you need
Indeed, but nothing comparable to the spills at Chernobyl or Fukushima.
> Nuclear fuel can be recycled
Only once, and France, an industrial leader in this area, only manages to recycle 10% of its reactor fuel this way.
> It's mostly not done because it's cheaper not to, just like in renewables
No, that's completely false. Closing the fuel cycle was considered the Holy Grail as early as the 1950s, because everyone knew that uranium deposits would greatly limit the expansion of nuclear power. The industrialization of reactors of the most promising architecture (fast neutron-breeders, sodium-cooled) as well as others, attempted at great length and expense in many countries, failed everywhere ( https://en.wikipedia.org/wiki/Breeder_reactor#Notable_reacto... ), there is no ready-to-deploy model of such reactor, and this approach has been virtually abandoned, replaced by the pursuit of fusion.
> The danger was known based on multiple data points
Before the major nuclear accident at Fukushima, the formulas for calculating seismic risk (the tsunami was triggered by an earthquake) were incorrect because they neglected very old earthquakes. The cause was an inability to properly assess the risk. This inability was not universal, as some (for example, Y. Hirai in the case of the Onagawa nuclear power plant, which was closer to the earthquake's epicenter and withstood the earthquake: https://en.wikipedia.org/wiki/Onagawa_Nuclear_Power_Plant#20...) did take the necessary precautions.
> They acknowledged evacuation was not necessary in the way it was implemented.
Arms-chair tacticians are verbose after the fact, but nowhere to be found when the problem was an ongoing challenge and experts described the worst-case scenario. The testimony of the prime minister at the time, referenced above, is perfectly clear.
> Capacity factor is important to understand how much firming you need.
No value is prohibitive, as there are many other pertinent parameters.
No, as it involved a partial meltdown, not a complete meltdown.