Slashdot Mirror


CERN's New Collider Design Is Four Times Larger Than the LHC (vice.com)

If built, the Future Circular Collider will be 10 times more powerful than the Large Hadron Collider, and could discover new types of particles. From a report: The 2012 discovery of the Higgs boson particle at CERN's Large Hadron Collider (LHC) is widely considered to be one of the most important scientific breakthroughs in history. It validated a half-century of research about the basic building blocks of matter, and remains the crowning achievement of modern particle physics. Now, CERN wants to follow up on the LHC's smashing success with a super-sized structure called the Future Circular Collider (FCC).

This next-generation particle accelerator would boast 10 times the observational power of the LHC and would stretch across 100 kilometers (62 miles), encircling the Swiss city of Geneva and much of the surrounding area. CERN published its first conceptual design report for the FCC on Tuesday. The four-volume roadmap was developed over five years by 1,300 contributors based at 150 universities, according to a statement.

20 of 145 comments (clear)

  1. Re:Diablo by Joce640k · · Score: 4, Funny

    The current one failed to create a black hole so they need to try again.

    --
    No sig today...
  2. Re:Two questions. by spth · · Score: 4, Informative

    According to the article, the current cost estimate is 17 G$.

    For comparison: That is 30% more than a Ford-class aircraft carrier, 40% more than the Gotthard Base Tunnel.

  3. Scienctists have a dream... by bobbied · · Score: 4, Interesting

    Well, for the cost of this monstrosity, what else could we do? Where I like dreams like this, are we SURE that we need the collision energies this new collider will give us? What burning questions will this tool help answer that the old one didn't? Are we sure there isn't any way to improve the current collider without drilling more than 180 miles of tunnels?

    Yea, I know that much of what we *could* find out with this thing is nothing more than educated guessing, but I wonder about the cost and schedule needed to build something this size. Is there something else which holds more promise than driving sub-atomic particle physics to higher energies? Are there benefits here? I mean other than providing answers to settle the various bets made by proponents of the various competing theories now?

    Maybe the money would be better spent on bio-medical research, genetic manipulation of food crops, Fusion energy commercialization or space exploration? Just a thought guys.

    --
    "File to fit, pound to insert, paint to match" - Aircraft Maintenance 101
    1. Re:Scienctists have a dream... by dargaud · · Score: 2

      Or maybe invest more in plasma wave linear accelerators which can potentially be much smaller.

      --
      Non-Linux Penguins ?
    2. Re:Scienctists have a dream... by crgrace · · Score: 5, Insightful

      I get what you're saying, and people have been making the same arguments since the very beginning. In fact, when Ernest Lawrence was trying to build his first cyclotron (and thus jumpstart high-energy physics) he asked the local power company (PG&E) for funds and they responded in a very similar way to your response. Luckily, Lawerence was able to get the money, a Nobel prize, and pave the way to a new era in team-based science.

      To answer a couple of questions, you're right that it is unclear if a new collider would turn the physics world on its head. It would certianly produce large numbers of Higgs particles and therefore make studying the Higgs much easier. It could also rule out many potential string theories (and theories on supersymmetry). If it did find supersymmetric particles that would be earth-shattering, as it would overturn the current standard model and would hold the promise for un-imagined future technologies.

      As for whether you need a larger collider, yes, basic high-school physics can show that only a larger diameter will let you further increase the energy at the interaction point (assuming a circular hadron collider).

      Now, you ask is this worth investing in, instead of, say, biomedical or genetic research. I think this is a false dichotomy. The answer is we should invest in both and all. Besides increasing our knowledge of physics, accelerator research has led to a huge number of useful technologies that were invented along the way. For example, high energy physics were among the first "Big Data" applications and dealing with this data led to the World Wide Web. In addition, breakthroughs enabling digital cameras, clean energy, materials science, and bioimaging have been made possible in the last few decades based on experience gained building these kinds of accelerators. I think there are benefits here and this is work worth doing.

    3. Re:Scienctists have a dream... by bobbied · · Score: 2

      But, like it or not, we have limited resources to invest. It's not a false dichotomy, what holds the most promise for the application of the resources we have? An "All of the above" option doesn't exist when the request for resources exceeds the available resources. Plus it would be stupid to start this project unless we are committed to see it though because starting then giving up would be a monumental waste.

      All I'm asking is that we evaluate the possible benefits of perusing all kinds of research and make an educated guess as to where the funds would have the largest chance of paying off and choose accordingly. IF it turns out that drilling another 180 miles of tunnels for an accelerator that's capable of say 10X the energy holds the most promise of expanding our scientific knowledge in useful ways, then we invest in it.

      All I'm asking is that we at least THINK about how we allocate funds and try to be intelligent in what we invest in as we really do have limited resources here.

      --
      "File to fit, pound to insert, paint to match" - Aircraft Maintenance 101
    4. Re:Scienctists have a dream... by crgrace · · Score: 2

      Well I would submit we (and by we I don't mean me as an American but research administrators of the CERN member states) most definitely do think this stuff through. CERN does a lot of work besides LHC (although LHC is their key experiment at the moment) so a new collider isn't necessarily make-work for them.

      It is really, really difficult to be intelligent in this type of thing because of so many "interests" at the table. The amount of money the USA has spent on the nuclear weapons program since the 1940s is approx. 1 Trillion USD (inflation adjusted). Sure, you can make a good argument the nuclear weapons program kept the cold war cold, but 1 trillion?

      I think it is a false dichotomy because the "limited resources" is self-imposed more than anything. Of course we can't invest infinite dollars, but we can invest enough we can sustain meaning research programs into all the areas you suggest (and we do).

    5. Re:Scienctists have a dream... by tlhIngan · · Score: 4, Informative

      Or maybe invest more in plasma wave linear accelerators which can potentially be much smaller.

      Wouldn't work - wrong kind of particle accelerator.

      There are two kinds of particle accelerators, and you use one or the other depending on the science you want to do.

      The LHC is basically a particle accelerator - you take two particles (consisting of multiple quarks) and slam them into each other. This generates lots of collisions, and the quarks smashing into each other generate all sorts of new particles. As you can see, an accelerator like the LHC is used to perform "new science" - to discover what can only be done by colliding lots of random quarks and particles together to see what new forms of particles you get. This works because the particles you collide aren't uniform (a neutron or proton is not a homogeneous thing - and they can have three or four quarks). Thus when they collide, you're smashing things with varying energy and composition, to form new things of varying composition. Thus when trying to discover the undiscovered, like the Higgs boson, you need this kind of collider - it generates the random variations and energies you need to discover.

      The other type of collider uses electrons, which are very precise. You use these colliders to perform in-depth science - if you're probing stuff, the fact that you can control the electron beam precisely is why it's good - the energy distribution is highly controlled so you can probe the properties of whatever you're exploring. If you find a way to reliably make Higgs, for example. you can use this kind of collider to probe its properties. And since they are only accelerating really light electrons, they can be much smaller to get them to higher energy levels. Accelerators like the LHC have to accelerate heavy particles by comparison so it takes a lot more energy and time.

  4. Re:Two questions. by Merk42 · · Score: 4, Funny

    According to the article, the current cost estimate is 17 G$.

    17 Gillion Dollars??

  5. Re:Won't happen by fahrbot-bot · · Score: 3, Funny

    This won't ever be built. The era of big physics is over.

    Ya, but, contrary to their name, Large Hadrons are actually really, really tiny. :-)

    --
    It must have been something you assimilated. . . .
  6. Re:Two questions. by spth · · Score: 3, Informative

    I'd assume that it will be paid mostly by CERN member states. Top contributors to CERN's 2019 budget:

    • Germany (21%)
    • United Kingdom (16%)
    • France (14%)
    • Italy (10%)

    See https://fap-dep.web.cern.ch/rp... for details.

  7. Re:Two questions. by spth · · Score: 4, Insightful

    Mexico is not a CERN member state, which pay most of the CERN budget.

    While Mexico has a co-operation agreement with CERN, it (like most countries with observer status or co-operation agreements, which also includes the US, Russia and China) has apparently not contributed to the 2019 budget: https://fap-dep.web.cern.ch/rp...

  8. What better use? by SuperKendall · · Score: 2

    Well, for the cost of this monstrosity, what else could we do?

    Although you alternate ideas are good, I think the very fact we don't know what we can get from this makes it a good idea. It's a good idea to invest in at least a few projects that are wild gambles that could lead to truly something new. And I say that as someone who thinks we seriously need to get humans on Mars...

    --
    "There is more worth loving than we have strength to love." - Brian Jay Stanley
  9. Re:Two questions. by Anonymous Coward · · Score: 2, Insightful

    Considering Europe doesn't throw billions worth of € in stupid military macho shit we've got the means to fund basic research on a grand scale. Less weapons, more science.

  10. Re:Two questions. by Tailhook · · Score: 2

    I'd assume that it will be paid mostly by CERN member states.

    Well don't do that. The precedent has been to rely on considerable funding and resources from the US:

    The US provided one-third of the cost of each detector, about $165 million to each. A lot of this was built in the US, funding US hi-tech jobs.

    The US also contributed $200 million to the accelerator.

    The US contributes about a third of the cost of running the detectors.

    Pretty good for a mere "observer" state. Doubtless the US will be invited to observe a few billion into Future Circular Collider as well.

    --
    Maw! Fire up the karma burner!
  11. Agree...but for different reasons by Roger+W+Moore · · Score: 2

    The era of big physics is most definitely not over but I find it hard to believe that there is sufficient justification for this kind of expenditure. We don't have any good sense of the scale of the physics required to explain Dark Matter or why the Higgs boson is so light (something called the fine-tuning or hierarchy problem).

    Without knowing the energy scale we need to reach to discover new physics building the machine is dangerous because, if it doesn't find anything, then it will be almost impossible to get the even bigger machine we need to make those discoveries. We need the ILC first to do precision physics on the Higgs and use that to guide the design of the FCC. I know that's slower and more boring but I woudl rather we make any discoveries later than not at all.

  12. Re:DANGER Will Robinson by jeff4747 · · Score: 4, Informative

    The National Ignition facility is also dangerous as it means they will likely lose containment

    Uh.....they ran it at full power starting in 2012. We're still here, and there were no containment failures nor underground ignition.

    Ya might wanna cut back on the physics theories from video games.

  13. Benefits? by thegarbz · · Score: 2

    I remember a lot of articles around the time they confirmed the Higgs Boson that the practical limits for physics by smashing things had been achieved, that future discoveries required so many orders of magnitude more energy that building a collider that is 10x or even 100x the size of the LHC wouldn't produce any new meaningful results. That same article (which I can't find now) said that explore the next stage of particle physics would effectively need a collider spanning around the equator and would never be buildable.

    Can someone with more knowledge on this say what they intend to actually use this thing for?

  14. no new physics by epine · · Score: 3, Interesting

    The Human Genome Project was an international scientific research project with the goal of determining the sequence of nucleotide base pairs that make up human DNA, and of identifying and mapping all of the genes of the human genome from both a physical and a functional standpoint.

    It remains the world's largest collaborative biological project.

    The $3-billion project was formally founded in 1990 by the US Department of Energy and the National Institutes of Health, and was expected to take 15 years. ... Taking into account inflation, the project roughly cost $5 billion.

    I strongly suspect you could presently invest $50 billion into biology (with perhaps a side order of machine learning) before your incremental ROI declined anywhere close to this $17 b facility.

    Which is not to say that this facility is worthless, but that the time is ripe for investment elsewhere.

    The two main arguments for this facility are: 1) keeping the existing expertise alive; and 2) feeding the beast of existing appropriations directed to this technology sector.

    I read Big Science: Ernest Lawrence and the Invention That Launched the Military-Industrial Complex (2015) within the last year and I know that the achievements in this line of research have historically been immense, and I still don't think we should continue with yet another colossal expenditure, because the point of diminishing returns is exactly the facility we just built: worth it to confirm the Higgs, but no new physics.

    People were dying inside when the LHC discovered no new physics for precisely this reason.

    Furthermore, even if you discover new physics at this energy scale, it surely won't trickle into practical applications—not outside of cosmological theory, in any case.

    The only way this gets built is on the velocity of established funding tributaries.

    Meanwhile proteomics / machine learning are poised to deliver to the 21st century what particle physics delivered to the 20th century, if we're smart enough to look forwards, rather than perseverate on former glories.

  15. Goal by manu0601 · · Score: 2

    What new particle are the looking to observe with a 10-time larger collider?