They better try harder than a tokomak
That LHC dial on 11 - can it chuck hydrogen into boron? Now that would be a coool test!
More than a billion euros will be channeled to the astronomically over-budget ITER fusion reactor rather than to a broad range of needy European research projects. "This will not make us friends," one senior fusion boffin, who declined to be identified, confessed to Nature, which reported the research-funding switcheroo. The …
in a nuclear reactor.
Unfortunately, it's bloody expensive- the amount of gold you produce doesn't pay for the energy and feedstock materials.
It would be interesting to see what ITER could do if you fired stuff from the LHC into it. If it did more than nothing but less than blow up dramatically, it could be useful!
Philo T Farnsworth's fusor has been around with modifications for about fifty years now. Unlike cold fusion where the results are still disputed it does produce reproducible results. They're also relatively cheap to build (you can make one at home if you don't mind irradiating the cat with fast neutrons), so it looks like a technology that should be investigated seriously:
http://www.fusor.net/
As much as it is a shame to nick funds from other science projects, I believe there are few other things more needed right now than the clean cheap power that fusion will bring.
Anything that advances its development has to be worth the extra cash.
There are enough horror stories of huge budgets going to waste all over the place, at least this one is going to a decent cause
It's going to make an immediate and massive difference to the world. I mean OK, so it's not a renewable resource, but it is a fuel so abundant that it's the most common matter in the universe.
I've always been a fan of funding fusion research though, you can do nearly anything with enough energy and this could one day give us one hell of a lot of energy,
... that a scientist who has built a career on nuclear fusion is going to say "We can do it, we're only 15-20 years away now, just keep feeding us the cash."
... or that she's going to say "It's an impossible dream not worth chasing. It's very sad, but there you have it. Might as well sack us all now."
So while you're right - that this will never get any cheaper - we have to face the fact that no scientist, except possibly one who's on the verge of retirement, is *ever* going to issue the second of these two statements. So after >30 years of, basically, zero-rate progress, how does it make sense for us to continue writing blank cheques to these scientists? Perhaps it's time to grow up and realise that we have to draw assumption #2 ourselves.
the Dail Wail is calling your back to the editorial department....
Euro waste, bloody foreigners....
Chances are they are scientists, construction workers, designers, engineers from all over europe working on this, just as they were / are on the LHC.
Or would you prefer the money being spent on big British projects, say the Olympics, employing nothing but ENGERLISH workers...Oh wait....
Cheap power means you have cracked a lot of other issues.
You can grow food in green houses with grow lamps/leds.
You have energy to make steel and other materials that you use in building shelters.
You have cheap energy to heat/cool homes.
You have cheap energy that will lead to space exploration of our solar system and then potentially our galaxy.
Even if Fusion is cracked, then it's extremely unlikely it will be cheap. If it's anything like current design ideas the capital costs of any fusion power stations will be absolutely enormous. The costs of this would have to be amortised over the useful lifetime of the generator and that will not be an indefinite period. Any fusion reactor satruae with neutrons will eventually need replacement. Even the more conventional parts of a such a power station (turbines, generators, distribution and the like) still have a significant cost, although they are likely to be a fraction of the costs of nuclear parts.
The best that can be said is the energy supply will (to all intents an purposes) be unlimited as we are not going to run out of deuterium. However, it's difficult to see how it will ever be cheap without an, as yet, completely new technology.
> once again it will all be spent on a small region of France.
No experience of ITER but the waste on most of these projects that I have worked on is because it ISN'T all spent in one region.
Because all the spending gets pork barrelled back in proportion to each country's contributions you get different pieces of equipment doing identical jobs developed separately in different countries by different companies.
Innevitably one of them doesn't work as well, so the better supplier ends up being paid to build a replacement for the second out of the spares budget - this means each bit of kit costs 2x as much as if you just let the best supplier build it.
It's like being forced to build and support every app in Java and C# so that both Sun and MS will vote for it.
As long as you know it's like rubbing sticks together then you’re fine.
OK its very small hydrogen sticks that really don't want to be rubbed together and need to be very hot,
But we have the technology and it's about fucking time we perfected it.
It isn't like we ever failed to perfect anything else if we could be arsed.
Europe contirbutes less than 50% of the funding for ITER. So in reality, that little corner of France is attracting significant non European invertment which will create many European jobs and generate tax revenue to prop up your ailing economies.
Also, if it works it will be the single most important thing that has happened to the human race for a long long time.
The troubling part is that the project went this much over budget. But, now that so much money has been spent, suddenly not renewing the funding would be insane - you have a massive initial investment that would go down the toilet. It'd be like buying a car, finding out it has a bad battery, and refusing to get a new battery because it costs too much.
Going over budget has many reasons here, largely because of delays in the money being made available has lead to large increases in the raw materials cost (particularly copper, which ITER needs a lot of). If it had been built when originally planned at the original design of pre-1998 then it would be less of a problem.
So suppose that ITER produces more energy than it consumes, the so-called Holy Grail "break even" point with fusion. If it costs $15b to build, then I have serious doubts as to whether we can ever make this stuff work in a cost-competitive fashion. Remember, nuclear fission can last us a VERY long time.
..could help with that. We already had the tech running here in Germany, but the soviet's incompetence in running THEIR power stations killed it.
It was called "Thorium Hochtemperatur Reaktor" and was operating in Hamm-Uenntrop, generating 300MWe.
Thorium would last for 5000 years at current energy consumption levels.
And in addition, we could breed U238 into Pu239. The french had their SuperPhenix reactor doing that, but it proved to be politically inconvenient (even the frenchies have their Green Plague) and also very expensive.
What a joke! Thorium is what everyone will turn to when the uranium runs out, but it's not a fundamental shift. If fusion is mastered, the only thing that conventional fission technology can contribute is the know-how around materials science, dealing with lots of neutrons, and stuff like that.
And Superphénix and Dounreay weren't cancelled because of "political inconvenience" - there were serious operational problems with both of them.
$15Bn is buttons in the energy industry.
That cost is for a scientific proving version of the technology, not a commercial version. If history has taught us nothing else when it comes to science, the first time you do something is the hardest and invariably most expensive.
It's also only a low multiple of the cost GM spent on building a hydrogen-cell powered car.
It's about the same cost that ID cards in the UK were thought to have ended up costing.
The current shortfall (€1.4Bn) is about the same as NASA spent on building the lunar rover 40 years ago.
ITER is more a political activity rather than a scientific endeavor, its also one of the least promising approaches to fusion currently being researched. an awful lot of scientific careers are attached to ITER and its incredibly embarrassing that fundamental technical issues such as confinement still remain unsolved. Its a turkey.
Bussard's take on the Fusor, Polywell, is looking exceedingly promising and is being funded by the US Navy, next year for the next set of results. EMC2 are looking towards commercializing the technology and seeking funding to do so. Its a more promising approach on a quicker path than ITER with a considerably lower cost.
> its incredibly embarrassing that fundamental technical issues such as confinement still remain unsolved.
More importantly, what do they propose doing with all those high-energy neutrons bombarding the sides of the reactor, day-in, day-out? When the tiny JET reactor fired up for less than one minute, didn't it make the vessel so radioactive that it couldn't be opened for a week?
ISTM that even if fusion works it will be far dirtier than any fission reactor. So why waste money trying to make it work in the first place?
If the tokamak is running continuously it won't need to be opened :P
Confinement and blanket material to shield the reactor are challenging, thus, this is a test reactor, to create and refine the technologies needed to produce power from fusion.
What makes you say it'll be far dirtier than a fission reactor? Non radioactive fuels, non radioactive fuel waste, radioactive segments in machine (but then doesn't a fission reactor have, oh, i dunno, the same problem)
We've already got an excellent and relatively stable fusion reactor at a safe distance likely to burn for a few billion years called the Sun. Putting a fraction of this budget into research for better methods of harnessing the Sun's output either directly (solar) or indirectly (wind and wave) would get much better and more immediately useful results. Good fun to be able to start up your own fusion reactor for sure, and certainly worth spending a few bob on, but being able to mass produce them and being able to get the energy out of such systems at a sensible cost is likely to be another story.
So what are the budgets for research into more probable renewable means of harnessing Sun energy outputs in comparison ?
...much more than 15 billion Euros is already being invested in Solar Power and all it did was driving up leccy prices dramatically, because utilities are required to buy it at excessive prices.
It's not for trying, but the "renewables" are only there because the government mandates them (effectively). If you put a panel on the roof you get between 25 and 40 eurocent/kWh. Now have a look at your bill and don't forget that for each kWh of solar you need a kWh of Gas or Coal or Water to back it up in case - the sun doesn't shine !
The only place where Solar energy is actually efficient is in Space, where you get the full juice without an atmosphere blocking it, no day/night cycles, and no bad weather to screw up the power output level. There is one project working on Space Solar stuff, though; it involves sending the harnessed energy as targeted microwaves to the surface.
For Earth-based stuff, Fusion is the only thing that will be able to keep up with our power requirements.
We need to accept that our current civilisation will run out of power unless a new source is found - Renewables are not enough for the levels of consumption we have and the other sources are finite and running low.
Moreover, if our civilisation should falter, we've raided the larder to such an extent that it would be impossible for a fledgling industrial civilisation to easily get started again - can you imagine the victorians managing to successfully drill a deep water well?
So anyway, our current civilisation is probably the last chance we have and it needs power. So really we should put all the money into power research that we can instead of using it to shoot at people who bicker over religions..
It has been demonstrated several times that it is possible to build a house so well insulated that it never requires heating, even in northern Scandinavia. There are plenty of opportunities to reduce energy waste in transport. Therefore, it is not inevitable that power consumption has to increase.
I'm not opposed to research into new ways of generating power, but research into ways of saving power is probably more important, and more likely to give results in the short/medium term than fusion.
Tokamak plasma containment fusion is a joke.
The reactors are not clean, they (if they ever work) would be insanely big and expensive, and they make so much Neutron radiation that the reactors eat themselves alive from the inside and are essentially just as much of a danger (liquid lithium jacket!) and long-term nuclear waste problem as fusion. In terms of the physics plasma containment is like trying to make fire by rubbing sticks together, except you have billions of sticks, that are all trying to get out of your grasp, and only a tiny fraction of the damn things are hot enough that if they did rub together they might spark.
There are other types of fusion that could really work though.
Fusor technology has been around for decades in its original form, and one modern variant of the basic Farnswoth-Hirsch approach called Polywell could produce almost limitless totally clean, safe and cheap power with the first commercial generation underway very economically in just a decade. The research and proof of concept work is 90% done and only a small fraction of the money going into tokamaks would be needed to get it running.
But it won't be funded because it has the potential to completely destroy the oil hegemony, and the plasma-containment funding gravy-train that currently exists in nuclear fusion physics.
then someone would invest in it. An oil Sheik who's running a bit low and wants to screw over his neighbours. An American who doesn't like BP. Elon Musk to ensure limitless cheap power for SpaceX and Tesla Motors. According to Wiki the inventor estimated £200M as an approximate cost for a new power producer. That's nothing in terms of big physics. And a working fusion generator would bring in returns in a short time frame. The hydrogen lot would like it. The enviro-nutter lot would like it. The space industry would like it. It would be very, very popular once the genie was out of the bottle.
Either that, or the researchers really, really suck at promoting their ideas.
The question is not whether we have a replacement for oil - there are hundreds of potential replacement energy technologies. The real question is about political will. I would love to see the UK government grow some balls and invest in true alternative energy research - e.g. ZPE, H H O, Thorium Fluoride Fission, etc...
Lets DITCH OIL NOW!
Piece of cake.
Stop funding so called "climate change research" (they recently got 5 _billions_ from IPCC) and put that money something which is based on science, ie. fusion. There's several billions stolen from real sciences to that pet peeve of politicians, more than enough to fund ITER.
The money will help climate more in there than in the pockets of so called "climatologists".
There's always someone whining about climate science when any vaguely related topic is under discussion. How about transferring money from the financial services business? You know, the people who invented all sorts of schemes to package garbage as "valuable" investments, have them rubber-stamped, and then traded as if they were gold, only for everyone to get ripped off when the packaging was opened. And I don't see many prosecutions, even though everyone knows who was involved.
Climate science deserves funding because it can only improve - that's what science is about - and the alternative is just parading the Bush-crony "we ain't changing the planet, we're only one species" nonsense when, to be completely neutral, we cannot be sure what the extent of mankind's influence really is until we actually investigate it. So how about getting off your ill-informed high horse? There's plenty of money to go round if decision-makers aren't total stooges for the bankers, ratings agencies and fund managers who actually caused the economic crisis responsible for this shortfall.
Hahahahaha ... cough, splutter!!!
We've alread spent^H^H^H^H^H wasted more nearly that in Ireland alone ... rescuing just one b****y bank from it's own disastrous lending policies! And the taxpayer's "commitment" (huh? did I vote for this?) could even go as high as €22billion if recent reports are correct.
Time for governments to get their priorities straight methinks!
Bring on the scientists' revolution ... time to explain to the bankers and lawyers how useful they really are to society!
Oops, sorry! <rant mode off>
Nurse, it's time for my medication.
need money for it, just get them to put a tractor on the roof
The EU will think its a farm and then throw money at it via the CAP.
As for the 'renewables' lot bleating about why dont we build windmills....
to replace our power generators with wind turbines would take about 35 000 to 40 000 turbines
Space them in a nice 10 deep row at 200 meters apart and thats a wind farm 2km wide by 600km long.
And then we get a blocking high pressure system form.....
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on it.
The Wright Bros in USA,and those in Europe around 1900,were trying to make a heavier than air flying machine .
The mathematicians told them to stop wasting their time and money on this crazy idea, as it was clearly impossible for such a machine to carry more than two people.
But the fools wouldn't listen .
Since the concept of fusion was first proposed all we have heard is it will be realised in another 15 years - 80 years later and we are still 15 years away!
Here are some equally (if not more) deserving energy research projects
1) Zero point energy (scientific FACT that it exists, debatable whether it can be utilized). Practical & theoretical scientist Arie de Geus claimed to have done this by creating a battery which forces electrons through a thin enough film to reduce the ground state of the electron and thus release ZPE. After securing a contract to manufacture the batteries he was allegedly executed whilst sat in the air port car park (just before signing contracts for manufacture).
2) Thorium-Fluoride Nuclear Fission Reactor Tech - Actually successfully implemented by the US navy around the 50s or 60's. Much safer than enriched Uranium fission reaction technology, cheaper, more abundant, lower half life, etc... Hmmm, maybe that's why the US government bought up a lot of thorium in the 60's and then never bothered to develop it, we couldn't have the precious petro-dollar destroyed now could we?
3) Mono-atomic Hydrogen / Oxygen technology (H H O - aka Browns gas). Proven to output a greater calorific value than the electrical energy required to create it. The trick here will be making it safe. Can be used to weld metal to glass and other weird things. Flame can turn tungsten to molten mess in a matter of seconds but is only warm to the touch. Some scientists are suggesting that the reaction with metal is actually an electrical reaction and hence why it is not dangerous when applied to the skin.
4) Ultra-efficient H20 electrolysis - different than H H O technology described above. Uses overlaying pulsed electricity at specific frequencies to split H2 and O1 from H2O at lower energies than what can be harvested from burning the separated gas. Has been explained by Tom Bearden to potentially be using the negative-energy physics described by Paul Dirac.
I could go on.