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bananas

(27,509 posts)
Thu Jul 30, 2015, 12:09 PM Jul 2015

Next-generation nuclear reactors may not be safer: French watchdog

http://www.reuters.com/article/2015/04/27/us-nuclear-future-france-idUSKBN0NI1WJ20150427

Next-generation nuclear reactors may not be safer: French watchdog
PARIS | By Geert De Clercq
Mon Apr 27, 2015 1:17pm EDT

The next generation of nuclear reactors being developed in countries such as France, Russia, China and Japan may not be safer than those being built today, French nuclear safety watchdog IRSN said on Monday.

In a study of six future reactor designs being worked on by the U.S.-led "Generation IV International Forum", the IRSN said only the sodium-cooled fast reactor (SFR) model was far enough along in the development process to envisage building a prototype during the first half of this century.

But it could not say whether it would be safer than models currently being built for service.

"While it seems possible for SFR technology to guarantee a safety level at least equivalent to that targeted by generation III pressurised-water reactors, IRSN is unable to determine whether it could significantly exceed this level," it said.

<snip>

The agency also questioned the degree to which the reactor would be able to burn up "actinides", among the most dangerous by-products of nuclear fission.

4G advocates argue that SFRs would reduce the amount of nuclear waste and the need for deep storage, but the IRSN said this feature offered "only a very slight advantage", which would not be the deciding factor in the choice of future reactors.

<snip>

23 replies = new reply since forum marked as read
Highlight: NoneDon't highlight anything 5 newestHighlight 5 most recent replies
Next-generation nuclear reactors may not be safer: French watchdog (Original Post) bananas Jul 2015 OP
Future Of Nuclear Industry Takes Yet Another Hit bananas Jul 2015 #1
As I've said a number of times, I was told the same thing 40 years ago by experts in the field. bananas Jul 2015 #2
The only people who delude themselves that nukes can ever be safe are those in the industry Cleita Jul 2015 #3
A couple corrections/clarifications FBaggins Jul 2015 #4
Are these the ones that use nuclear waste to operate? lonestarnot Jul 2015 #5
Yes, and others. nt bananas Jul 2015 #6
I hate to ask anti-nukes questions involving logic, but... NNadir Jul 2015 #7
It's always "worth" improving safety FBaggins Jul 2015 #8
That would depend on what you make "safer..." NNadir Jul 2015 #9
Most of those 7 million deaths you throw out there madokie Aug 2015 #17
The ability to make this type of reactor meet minimum safety standards isn't yet achieved. kristopher Jul 2015 #10
Your timeline is off FBaggins Jul 2015 #11
No, my timeline isn't off - it isn't mine. kristopher Aug 2015 #12
Yes it is (both off... and yours) FBaggins Aug 2015 #13
You are quite the character kristopher Aug 2015 #14
Sigh. Can't be bothered to actually read the report that you claim you're using as a source? FBaggins Aug 2015 #15
Exactly as I expected - you are misdefining "prototype" kristopher Aug 2015 #16
Exactly as I expected - you're trying to spin away from the context FBaggins Aug 2015 #19
ROFLMAO kristopher Aug 2015 #21
Your post #10 is the one in question - not #14 FBaggins Aug 2015 #22
Get a life (and a clue) Bags. kristopher Aug 2015 #23
Only one phase of nuclear energy is relatively clean, producing the electricity. madokie Aug 2015 #18
Sorry... that's nonsense. FBaggins Aug 2015 #20

bananas

(27,509 posts)
1. Future Of Nuclear Industry Takes Yet Another Hit
Thu Jul 30, 2015, 12:11 PM
Jul 2015
http://oilprice.com/Alternative-Energy/Nuclear-Power/Future-Of-Nuclear-Industry-Takes-Yet-Another-Hit.html

Future Of Nuclear Industry Takes Yet Another Hit
By Charles Kennedy
Posted on Tue, 28 April 2015

Despite the rough patch that the nuclear industry has experienced in recent years, its future remains bright, the industry insists. That is because the next generation of nuclear reactors will provide significant safety and economic benefits over current reactors.

But what if the new designs are actually not all that much better than the current fleet?

That is the provocative conclusion that France’s nuclear watchdog came to in a new report. Published on April 27, the IRSN said that the so-called “generation IV” reactors of the future may not be able to offer major upgrades in safety (most of the reactors running today are generation II – built in the 1960’s and 1970’s – and the newer designs that are currently under construction today are considered to be generation III).

The IRSN report reviewed six of the most promising generation IV reactor designs: sodium-cooled fast reactors (SFR); very high-temperature reactors (VHTR); gas-cooled fast reactors (GFR); lead-cooled fast reactors (LFR); molten salt reactors (MSR); and SuperCritical water reactors (SCWR).

<snip>

bananas

(27,509 posts)
2. As I've said a number of times, I was told the same thing 40 years ago by experts in the field.
Thu Jul 30, 2015, 12:24 PM
Jul 2015

And in 2003 MIT came to a similar conclusion in it's report "The Future of Nuclear Power".

Ernest Moniz, the current DOE headnegotiating with Iran, co-chaired that report with John Deutch, another MIT professor who was CIA Director during Bill Clinton's presidency. Obama's Science Advisor John Holdren also participated in that report.

Cleita

(75,480 posts)
3. The only people who delude themselves that nukes can ever be safe are those in the industry
Thu Jul 30, 2015, 12:28 PM
Jul 2015

itself. When an accident takes 50,000 years to correct, it's not something that can be considered safe. And it only takes one accident.

FBaggins

(26,748 posts)
4. A couple corrections/clarifications
Thu Jul 30, 2015, 05:30 PM
Jul 2015

The title merely says "may not be safer"... but that's not "safer than current reactors". It's "safer than the already much safer Gen III models"

Also - There are clearly safety enhancements (e.g., not using water means no threat of hydrogen explosions, and operating a low pressure means that loss-of-pressure wouldn't cause an accident). They just aren't in a position to estimate whether or not there are offsetting losses in safety due to the changes (e.g., higher temperatures and/or metal coolants that react with oxygen).

They won't be in a position to realistically evaluate safety improvements until design and development are much further down the road. They also aren't in a position to say that they won't be much safer.

NNadir

(33,525 posts)
7. I hate to ask anti-nukes questions involving logic, but...
Fri Jul 31, 2015, 12:59 PM
Jul 2015

...given that French nuclear reactors have a spectacular record of not killing anyone, how is that we should consider the question of making them "safer."

Safer than what?

Seven million people die each year from air pollution. The anti-nuke community couldn't care less about those deaths.

Have seven million people died from French reactors? Seven thousand? Seventy? Seven?

Nuclear energysaves lives.

http://pubs.acs.org/doi/abs/10.1021/es3051197

It follows that people who oppose nuclear energy with constant assertions of fear and ignorance cost lives.

FBaggins

(26,748 posts)
8. It's always "worth" improving safety
Fri Jul 31, 2015, 01:23 PM
Jul 2015

Last edited Fri Jul 31, 2015, 05:43 PM - Edit history (1)

Certainly... cost is a consideration. You wouldn't pay twice as much for a car that was 2% safer than the prior model of the same car, but the safety enhancements between GenII and GenIII reactors don't add much to the cost.

It's worth noting that while the Fukushima reactors would likely not have been so catastrophically destroyed had they been built/operated to U.S. standards for the same models... a GenIII reactor almost certainly would have survived with virtually no lasting impact. They would be back up and running some months later.

NNadir

(33,525 posts)
9. That would depend on what you make "safer..."
Fri Jul 31, 2015, 05:20 PM
Jul 2015

Suppose we spent one hundred billion dollars trying to make sure that no reactor experienced another Fukushima.

How many people died because of Fukushima?

Suppose we took the same one hundred billion dollars and installed septic systems for some of the 2 billion people on this planet who have no sanitary systems at all.

How many lives would be saved?

Which is the larger number?

Nuclear energy need not be perfect to be vastly superior to everything else. It only needs to be superior to everything else, which it is.

There is no form of large scale primary energy, zero, that is safe as nuclear energy. Zip. Zilch.

The fact that there have been nuclear accidents has had nowhere near the effect in terms of destruction to health and the environment as the normal operations of dangerous fossil fuel facilities.

More people have died from the air pollution resulting from running computers to discuss Fukushima than have died from the radiation the reactors released.

madokie

(51,076 posts)
17. Most of those 7 million deaths you throw out there
Tue Aug 11, 2015, 06:10 AM
Aug 2015

are deaths due to improperly used or non existent cooking and heating apparatus's in third world countries. Where people heat with open fires and cook over open flames. Light their homes or huts, whichever you want to call them, with candles and oil burning lamps, all unvented. If you're concerned with those deaths then you need to get off your ass and help in providing them with the technology and stoves, lighting etc that won't kill them, not use it as an argument if nuclear is safe or not. Mr David Jones

If nuclear energy proponents would be honest in having a discussion on the deaths due to the mining, processing, accidents etc of nuclear energy then we could have an ear to listen, but until then all I hear is denial. Nuclear kills just as sure as a bullet, its just a slower more painful death, one that is easy to hide if one has a tendency or a want to do such a thing. I'm looking at you mr Jones and mr Baggins
Have a good day, I plan too

kristopher

(29,798 posts)
10. The ability to make this type of reactor meet minimum safety standards isn't yet achieved.
Fri Jul 31, 2015, 06:21 PM
Jul 2015

There is still no answer for the drawbacks of using sodium. Simply focusing on the advantages might be good salesmanship, but it is more piss-poor science from an industry that makes it's money distorting, misrepresenting and outright lying about the work of actual scientists.

Also note the timeframe for potential deployment of a PROTOTYPE of this most advanced of the GenIV reactors is sometime within the next 35 years. It's obvious to anyone outside the nuclear industry bubble that this line of research is a waste of resources if addressing climate is the goal you are pursuing.

"While it seems possible..."

On the basis of its examination, IRSN considers the SFR system to be the only one of the various nuclear systems considered by GIF to have reached a degree of maturity compatible with the construction of a Generation IV reactor prototype during the first half of the 21st century; such a realization, however, requires the completion of studies and technological developments mostly already identified.

The main advantage of SFR technology in terms of safety is the use of low-pressure liquid coolant. The normal operating temperature of this coolant is significantly lower than its boiling point (margin of about 300°C), allowing a grace period of several hours during loss-of-cooling events. The advantage gained from the high boiling point of sodium, however, must be weighed against the fact that the structural integrity of the reactor cannot be guaranteed near this temperature.

The use of sodium also comes with a number of drawbacks due to its high reactivity with water and air. While it seems possible for SFR technology to guarantee a safety level at least equivalent to that targeted generation III pressurised-water reactors, IRSN is unable to determine whether it could significantly exceed this level....

...The feasibility of the system, however, has yet to be determined; it will chiefly depend on the development of fuels and materials capable of withstanding high temperatures, the currently considered operating temperature of around 1000°C being close to the transformation temperature of materials commonly used in the nuclear industry.

...No operating experience feedback from the other four systems studied can be put to direct use. The technological difficulties involved rule out any industrial deployment of these systems within the time frame considered.

...At the present stage of development, IRSN does not notice evidence that leads to conclude that the systems under review are likely to offer a significantly improved level of safety compared with Generation III reactors, except perhaps for the VHTR, whose feasibility is however not acquired.



http://www.irsn.fr/EN/newsroom/News/Pages/20150427_Generation-IV-nuclear-energy-systems-safety-potential-overview.aspx

FBaggins

(26,748 posts)
11. Your timeline is off
Fri Jul 31, 2015, 09:54 PM
Jul 2015
Also note the timeframe for potential deployment of a PROTOTYPE of this most advanced of the GenIV reactors is sometime within the next 35 years.

Astrid is expected to reach approval milestones in the next few years with a realistic completion date around 2025. The 35-year timeframe was an estimate for France to replace half of their current nuclear capacity with the technology.

And, of course, the Russians' latest design reached criticality over a year ago.

It's obvious to anyone outside the nuclear industry bubble that this line of research is a waste of resources if addressing climate is the goal you are pursuing.

Actually... it's obvious to most that we'll be generating electricity for centuries to come (absent GG's any-second-now global doom). Most of our existing generation capacity of all types (including almost all current solar/wind capacity) will be gone in 2050. It makes all the sense in the world to have long-term plans in place.

There is still no answer for the drawbacks of using sodium.

Little bit of FUD there. High-pressure live steam is pretty dangerous too.

kristopher

(29,798 posts)
12. No, my timeline isn't off - it isn't mine.
Sat Aug 1, 2015, 12:32 AM
Aug 2015

All of the information items you are trying to make false assertions about are the statements and judgement of:

IRSN – Institute for Radiological Protection and Nuclear Safety – is the French national public expert in nuclear and radiological risks.

As a research and expert appraisal organization, IRSN contributes to the implementation of public policies concerning nuclear safety and security and health and environmental protection against ionizing radiation.



IRSN :Who are we
IRSN, a public authority with industrial and commercial activities, was set up under Article 5 of French Act No. 2001-398 of May 9, 2001, enacted through Order No. 2002-254 of February 22, 2002. This Order was amended on April 7, 2007.


The Institute is placed under the joint authority of the Ministries of Defense, the Environment, Industry, Research, and Health.

It is the nation’s public service expert in nuclear and radiation risks, and its activities cover all the related scientific and technical issues. Its areas of specialization include the environment and radiological emergency response, human radiation protection in both a medical and professional capacity, and in both normal and post-accident situations, the prevention of major accidents, nuclear reactor safety, as well as safety in plants and laboratories, transport and waste treatment, and nuclear defense expertise.

IRSN interacts with all parties concerned by these risks (public authorities, in particular nuclear safety and security authorities, local authorities, companies, research organizations, stakeholders’ associations, etc.) to contribute to public policy issues relating to nuclear safety, human and environmental protection against ionizing radiation, and the protection of nuclear materials, facilities, and transport against the risk of malicious acts.

Specializations
Monitoring environmental radiation and participating in radiological emergency response situations.
Human radiation protection.
Prevention of major accidents in nuclear facilities.
Reactor safety.
Safety in plants, laboratories, transport, and waste treatment.
Nuclear defense expertise.

Workforce (as of December 31, 2014)
IRSN employs around 1,748 people, including many specialists, engineers, researchers, physicians, agricultural engineers, veterinary surgeons and technicians, as well as experts in nuclear safety, radiation protection and control of sensitive nuclear materials.

Budget
291 € millions spent by IRSN in 2014 :
40.5% of budget devoted to research,
52.6% of budget allocated to technical support and public service missions.
http://www.irsn.fr/EN/Presentation/about_us/Pages/Who_are_we.aspx

I'm pretty sure these folks are decidedly pronuclear and highly qualified. So when They are critical of something in the industry it's probably with cause.

Let me guess, you are going to try and smear them because even though they are pronuclear, they aren't pro-your-nuclear.

And of all the garbage you've posted on this forum over the years, the claim you just made about sodium demonstrates a concerning lack of ethics. You know better.

FBaggins

(26,748 posts)
13. Yes it is (both off... and yours)
Mon Aug 3, 2015, 10:49 AM
Aug 2015

I have no need to "smear" them because they don't say what you claim that they say.

All of the information items you are trying to make false assertions about are the statements and judgement of:

Let's see... I corrected three statements

1 - These reactors are so far off that just the prototype of the most advanced model is up to 35 years off
2 - Pursuing any of them is a waste of resources if your priority is to combat climate change
3 - There is no answer for the drawbacks of using sodium

2&3 are easy - since IRSN never said either one of them.

1 - is easy as well... but it assumes that you actually read the report - rather than intentionally misread once line of the summary. They do not say that only one reactor will even have a prototype in the next 35 years. They say exactly what I said... that they expect ASTRID to be completed in the next ten years. They also note that both India and Russia are (as of the time of writing) expected to reach criticality in 2014/2015.

They address China' HTR-PM prototype which should be completed in the next couple years. That's clearly a prototype of a second type of reactor. Their comment isn't that they'll barely be to the prototype phase 35 years from now... it's that the design doesn't fit France's priorities. They want a design that can replace current reactor designs with an improved fuel cycle that can burn their current waste. VHTRs currently show promise for the second part of that, but not the first because it isn't known that they can be large enough to replace GW+scale units.

IOW - They don't say that there won't be prototypes in the next 35 years (they mention nearer-term prototypes for other designs as well)... it's that there's no current plan for a prototype at a large-enough scale to evaluate as a fit for France's priorities. If, for instance, their only priority was to consume their waste plutonium... the HTR-PM in China would be a suitable prototype.

I find it entertaining that for some technologies (e.g., "rock batteries" and commercial wave generation) you take an unsupportedly optimistic reading of the available literature and claim that they're essentially "off-the-shelf" existing technologies and will be ready for commercial-scale applications any day now... and then misread opinions like this one to claim that they say that there's no point in wasting resources because even a pilot is decades away.


kristopher

(29,798 posts)
14. You are quite the character
Mon Aug 3, 2015, 11:29 AM
Aug 2015

IRSN's presser:

On the basis of its examination, IRSN considers the SFR system to be the only one of the various nuclear systems considered by GIF to have reached a degree of maturity compatible with the construction of a Generation IV reactor prototype during the first half of the 21st century; such a realization, however, requires the completion of studies and technological developments mostly already identified.

The main advantage of SFR technology in terms of safety is the use of low-pressure liquid coolant. The normal operating temperature of this coolant is significantly lower than its boiling point (margin of about 300°C), allowing a grace period of several hours during loss-of-cooling events. The advantage gained from the high boiling point of sodium, however, must be weighed against the fact that the structural integrity of the reactor cannot be guaranteed near this temperature.

The use of sodium also comes with a number of drawbacks due to its high reactivity with water and air. While it seems possible for SFR technology to guarantee a safety level at least equivalent to that targeted generation III pressurised-water reactors, IRSN is unable to determine whether it could significantly exceed this level....

...The feasibility of the system, however, has yet to be determined; it will chiefly depend on the development of fuels and materials capable of withstanding high temperatures, the currently considered operating temperature of around 1000°C being close to the transformation temperature of materials commonly used in the nuclear industry.

...No operating experience feedback from the other four systems studied can be put to direct use. The technological difficulties involved rule out any industrial deployment of these systems within the time frame considered.

...At the present stage of development, IRSN does not notice evidence that leads to conclude that the systems under review are likely to offer a significantly improved level of safety compared with Generation III reactors, except perhaps for the VHTR, whose feasibility is however not acquired.



http://www.irsn.fr/EN/newsroom/News/Pages/20150427_Generation-IV-nuclear-energy-systems-safety-potential-overview.aspx

If you have specific quotes from the report that contradict their press release or my reading of it, then post those quotes.

To get you started, here is the conclusion from the preface of the report.
Conclusion

IRSN draws attention to the fact that the review of the Generation IV nuclear systems selected by GIF primarily focused on their intrinsic qualities in order to determine their “safety potential”. The safety of these facilities will ultimately depend on the design and operating provisions implemented. Whatever the case, the assessments made will have to be reviewed once the systems have made further progress and new knowledge has been acquired. This is particularly true if the deployment of Generation IV reactors is delayed and postponed until the end of the century. Similarly, current assessments of these systems could be reconsidered due to the emergence of new, more realistic nuclear power scenarios that take into account industrial conditions and make allowance for the decommissioning of present and future reactors. A well-balanced safety and radiation protection assessment of these systems is impossible at present owing to deployment time frames, which can be very different, significant gaps in degrees of maturity, and the fact that the state of knowledge varies considerably according to the system. Consequently, the indications given in the IRSN report should be viewed with caution.

At the present stage of development, IRSN does not have all the necessary data to determine whether the systems under review are likely to offer a significantly improved level of safety compared with Generation III reactors, except perhaps for the VHTR, which is a low-power reactor. For this reason, the VHTR does not seem compatible with the objective - if confirmed - of renewing the existing nuclear power reactor fleet and, in any case,could not be constructed in the short term given the temperatures involved.

Much more research is still required to corroborate this general standpoint. For example, few studies are available on the behaviour of these systems under severe accident conditions.

IRSN also stresses that the Generation IV systems selected by GIF are intended for different national conditions. The selected systems can be associated with different fuel management modes (e.g. open or closed cycles, plutonium breeding or burning) and are therefore not all suited to the energy context in France. Some criteria such as sustainable and optimised management of natural resources and waste, which are particularly associated with fast reactors, are not necessarily compatible with a significant improvement in reactor safety. This is largely because of high operating temperatures and the toxicity and corrosive nature of most coolants considered.

Regarding SFRs, and possibly GFRs and LFRs, IRSN restates its position on research into minor actinide transmutation, namely that this option offers only a very slight advantage in terms of inventory reduction and geological waste repository footprint when set against the induced safety and radiation protection constraints for fuel cycle facilities, reactors and transport. On this point, ASN has recently announced that minor actinide transmutation would not be a deciding factor in the choice of a future reactor system.

Lastly, it should be borne in mind that any industrial deployment of a Generation IV reactor system in France will be linked to its advantages, not only regarding reactor fleet operation and safety, but also in terms of the coherence and performance of the associated fuel cycle. This concerns all aspects relating to safety, radiation protection, material management and efforts made to minimise the quantities of radioactive waste generated, without overlooking the overall economic competitiveness of the nuclear system. Ultimately, the choice of system must be made as part of an integrated approach, based on studies that cover multiple criteria and all the aspects mentioned above.


The discussion has both generic and Franco-centric elements.

http://www.irsn.fr/EN/newsroom/News/Documents/IRSN_Report-GenIV_04-2015.pdf

FBaggins

(26,748 posts)
15. Sigh. Can't be bothered to actually read the report that you claim you're using as a source?
Mon Aug 3, 2015, 11:56 AM
Aug 2015
If you have specific quotes from the report that contradict their press release or my reading of it, then post those quotes.

I already gave you the information... now you're going to pretend that absent "specific quotes"... it just didn't happen?

From page 18:
CEA is currently heading studies on the ASTRID SFR prototype mentioned earlier, in collaboration with AREVA and
EDF3. Commissioning is currently scheduled for 2025.


From Page 23

* In India, the 500 MWe Prototype Fast Breeder Reactor (PFBR) is expected to achieve its first criticality at the
end of 2014. This prototype is expected to be followed by several 1000 MWe SFRs.

* In Russia, construction on the BN-800 reactor (800 MWe) has resumed after being halted by the dissolution of
the USSR. The core is being fuelled and the reactor is expected to begin producing electricity in 2014. Russia
is also considering developing a commercial version with a power output of 1200 MWe (BN-1200) based on the
BN-800 reactor. An SFR research reactor known as MBIR is also in development. The originality of the MBIR lies
in the test loops, which are inside the primary circuit and can be cooled by various types of coolant (lead,
LBE, gaseous coolant or molten salts).

* The China Demonstration Fast Reactor (CDFR) project, which has a generating capacity of between 600 and
900 MWe, is under way. It foreshadows the commercial stage of the 1000-1500 MWe Chinese Commercial Fast
Reactor (CCFR).


Two designs that are either in operation or within weeks of it... one that's under construction... and one expected to be completed a decade from now.

Compare that to your claim that what they're really saying is that only the most advanced design will even have a prototype 35 years from now.

kristopher

(29,798 posts)
16. Exactly as I expected - you are misdefining "prototype"
Tue Aug 11, 2015, 01:58 AM
Aug 2015

It is one of the first tricks to look for when dealing with you Bags. They are talking about prototype for a commercially ready reactor, not a demonstration of concept prototype that is cobbled together to test a facet of the technology.

The quote is an accurate presentation of the body of the paper and their conclusion is in line with that of everyone else. There is no expectation of a commercial prototype before mid-century.

This BS play with the idea of what a "prototype" is and what it means about something being close to commercial development is the same game y'all nuclear acolytes play with the stories you tell about the Oak Ridge Molten Salt Reactor Experiment.

That thing was never even close to being a commercial prototype. And contrary to the legend et-you-al try to create, because it was only marginally better than light water reactors in a just couple of areas, it was discontinued because the technical obstacles weren't worth spending the money to overcome.

FBaggins

(26,748 posts)
19. Exactly as I expected - you're trying to spin away from the context
Tue Aug 11, 2015, 09:28 AM
Aug 2015

Last edited Tue Aug 11, 2015, 10:15 AM - Edit history (1)

I didn't expect it to take you a week... but whatever.

They are talking about prototype for a commercially ready reactor

They
are... but You did not make such a distinction in your claim.

IOW, you're the one that's trying to "BS play with the idea of what a prototype is"

FBaggins

(26,748 posts)
22. Your post #10 is the one in question - not #14
Tue Aug 11, 2015, 12:25 PM
Aug 2015

(Which includes almost none of your own words) - You can't offer their statement as proof that you were correct in your confusion of what they meant in their statement. That's circular.

You also can't spin near-GW reactors as mere "conceptual prototypes" that are just "cobbled together". Russia planned last month to have three BN-1200s (their commercial Gen IV unit) under construction by 2030. They're waffling on that now, but it still doesn't fit a "not even a 'real' prototype before 2050" claim.

kristopher

(29,798 posts)
23. Get a life (and a clue) Bags.
Tue Aug 11, 2015, 12:59 PM
Aug 2015

The context of what I wrote was provided by extensive quotes from the press release and then the report itself. All consistent with each other.

To try and hide the truth of the conclusions drawn in the report You made an overtly false claim about the content.

You are shown to have attempted a deliberate misrepresentation of the content of the French nuclear safety agency's statements.

You.

Deliberate misrepresentation.

Deliberate.

Misrepresentation.

madokie

(51,076 posts)
18. Only one phase of nuclear energy is relatively clean, producing the electricity.
Tue Aug 11, 2015, 06:28 AM
Aug 2015

the rest not so much from building the machines that carve up the earth, the machines that haul the ore, the rubber tires that the machines use to travel over the earth carrying said ore to the processing plants, the building of those processing plants, the energy used to process that ore into fuel. The machines used in mining the raw ingredient to make the cement and iron used in building the nuke plants and on and on are all highly producing co2 endeavors. Claiming nuclear energy is clean is a lie, pretty much like all the other claims about nuclear energy are. Not to mention the years of construction workers doing all this work going to and from and all the equipment, vehicles and related items and the co2 produced there.
Nuclear energy is neither safe, sane nor cheap to produce and only a fool can see it as that it is

FBaggins

(26,748 posts)
20. Sorry... that's nonsense.
Tue Aug 11, 2015, 09:31 AM
Aug 2015

Wind and solar and hydro also involve "building the machines that carve up the earth, the machines that haul the ore, the rubber tires that the machines use to travel over the earth carrying said ore to the processing plants, the building of those processing plants, the energy used to process that ore into fuel. The machines used in mining the raw ingredient to make the cement and iron used in building the nuke plants and on and on are all highly producing co2 endeavors." (except that they aren't making "fuel&quot - and far more of it on a kwh basis.

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