
SuperK Neutrino Detector Severely Damaged. 191
Eric Sharkey writes "The Super-Kamiokande neutrino detector, which announced the discovery of neutrino oscillation and mass in 1998 (covered by Slashdot at the time), has been severely damaged. The NY Times (free reg, blah blah) has an article here. Most of the phototubes have been destroyed. Repair estimates top $30M, leaving the world far less capable of observing the next supernova neutrino burst, should it arrive before repairs or a replacement could be completed." CD: I called the lead of the project and he was in the tank checking out the damage. The webpage for the Super-Kamiokande is here. There are pictures for you to peruse.
could be the end... (Score:5, Interesting)
A couple of Japanese colleges say that SuperK was previously being targeted for budget cuts, and was fighting to maintain funding. They were concerned that if it would indeed take tens of millions of USDs to fix, then it may be cut. That would be a real dissappiontment.
Let's hope SuperK comes back on line, and that we don't have a galactic supernova go off while SuperK is being fixed.
Re:could be the end... (Score:1)
I'm now pondering evident in what way, and I realize then that it will not be obvious, but far more insidious. The world will simply be worse off, and we'll know in no certain terms by how much.
How truly terrible indeed...
This sounds suspiciously like.... (Score:2, Funny)
Strange! Neutrino detector destruction NHK TV! (Score:1)
I dont understand it, it looks like a bomb was set off in it or something. The reporting was very sparse, but the video shows broken glass and electronic bits scattered everywhere in the water, and smashed parts and wires floating in the chamber, like a bomb (or a student going
nuts with a baseball bat in the tank or
something) hit it or something. It is very wierd
type of "accident" if that is what it was...
Any one know what *really* happened here?
It makes no sense..
Re:Strange! Neutrino detector destruction NHK TV! (Score:2)
More wild speculation (Score:4, Funny)
I don't know how much their missions overlap, but does this put any more urgency on getting the Ice Cube [slashdot.org] neutrino scope up and running?
Whilst I'm here, I've been mulling over some possible reasons for the accident:
Will it come back up? I hope so. But it's hard. (Score:4, Informative)
However, even if money is no object, timeline could be. These 20-inch PMTs are not exactly off-the-shelf items, and Hamamatsu(the company that provides them for SK and many other experiments around the world) has substantial lead times in getting their production lines up. All told, even under the best of conditions, the process could take 2 years, by which time SK will be in severe competition with a lot of other experiments: Borexino, KamLand, MINOS, etc. etc.
They MIGHT use the time to build super-duper-K.. putting a magnet in the water to look for lepton charge sign from atmospheric neutrinos, but that seems a bit farfetched and difficult.
---Nathaniel, messenger of doom
P.S. I call dibs on the SK linac when it gets scraped!
Re:Will it come back up? I hope so. But it's hard. (Score:1)
They MIGHT use the time to build super-duper-K..
Actually, its successor will be Super Kamiokande Turbo Hyper Fighting Championship Edition.
Ice Cube (Score:2, Informative)
--- Nathaniel
Who has worked in Sudbury (SNO) and Minnesota (MINOS) and wants no part of AMANDA (south pole)
Re:Ice Cube (Score:1)
You'd think they could say why (Score:5, Insightful)
Why would a research instution hide the reason for the damage, afraid that they are going to cripple someone's career? It certainly is a tragedy, but the fact that they are not disclosing the real reason for the damage makes it more interesting somehow.
Thumbs up for cool Neutrino detectors though, it has been an unexplained scientific phenomena for a long time now. I hope they can fix it (and have the $$ too).
Brett
Re:You'd think they could say why (Score:3, Insightful)
Doesn't to me. Premature guessing as to the cause before investigation could be potentially damaging to any funding sources. The funding politics of large science projects can be quite complex. Completely normal.
Re:You'd think they could say why (Score:1)
To concur with the fellow who already replied, it doesn't seem strange to me. It's likely that there is a combination of a) the cause is not really known and b) the NYT reporter didn't really know how to report it.
I don't think the comment about it having to do with "pressure" implies that the tank was overfull. It was simply a scientist confirming that the pressure of the water, and not some other factor, was the immediate cause of the failure. That doesn't imply that the pressure was greater than was designed for.
I don't think they're hiding anything, and if you give them a little time, I'm sure there will be a lot of discussion in the scientific community aimed at getting to the root of the problem.
Here's why (a guess) (Score:5, Interesting)
Which is why deep water divers have to be carefull with their lights while working under pressure - if one implodes, the shockwave is like a small bomb going off. Remember, water is much more dense than air, any shockwaves will have significantly more energy, particularly at a depth of 40 meters.
All it would take is for one bulb to be broken somewhere in the depths of the tank (through physical impact or corrosion, etc) to set off a large number of them. Despite it's size, these are delicate instruments.
Just a rational, educated guess.
Re:Here's why (a guess) (Score:2)
And that light-bulb idea sounds pretty plausible actually, although a bit beyond common reason. I'm an engineer but I have absolutely no idea how those things are constructed...
B
Article dated tomorrow... (Score:2)
Appologies to bbspot.com
Re:Here's why (a guess) (Score:2, Insightful)
PMTs are remarkably robust. When we were building SNO, we tested a bunch of PMTs. Amongst other tests, we pressurized a tank to over 80 PSI and tried to smash the tubes inside using a rod that pushed through a pressure fitting.
The outcome of this test was that mostly the PMTs did not implode. There was a strong tendency for the rod to simply punch a rod-sized (about 1 cm) hole in the target tube. Putting a blunt block on the end of the rod did eventually produce an instance where the target tube smashed. The adjacent tubes, which were mounted in closer proximity to the target tube than they are in the real detector (and much closer than the tubes are in SuperK) were not damaged, despite being visibly twisted in their mountings.
Caveate: the tubes used in SuperK are about twice the size of those used in SNO, and therefore correspondingly more fragile. But having handled these tubes a good deal, I can say that it takes more than a small bang to break them. Whatever happened at SuperK (the NYT story is weirdly uninformative, to the extent that I wonder if they don't have all the major facts wrong) it is unlikely to be as simple as a chain reaction of imploding tubes.
--Tom
Re:Here's why (a guess) (Score:2, Funny)
Just an irrational and uneducated guess.
+1 Funny on the MQR standard (Score:2)
*laugh* Good thing it wasn't the Basterdino's super-sym partner (the Basterdon). Last I heard, it was suspected to mass about as much as a Mastodon (within a factor of Pi times some magic number).
-- Markus
Re:Here's why (a guess) (Score:2, Insightful)
You are right, there are no light bulbs inside, BTW, do you know how a photomultiplier tube works? The impact of a single photon releases an electron, this electron is attracted (by a big voltage difference) to an electrode. At the impact of this electron some more electrons are released, again attracted by a big voltage difference to the next electrode and so on. At each impact the number of electrons is multiplied, so that at the end you can measure a significant current from the impact of a single photon. Conditions to make this work are a vacuum inside a transparant enclosure (= a glass bulb).
Re:Here's why (a guess) (Score:1)
This fellow's explanation makes as much sense as any - implosion of one tube causing failure of nearby tubes. It isn't so much that water is denser than air as the fact that water is a liquid and liquids aren't compressible (appreciably). Knowing that the tubes they use in these detectors are on the order of 18"-24" across, I wouldn't have wanted to be in the water anywhere near one of those things when it goes crunch.
Re:You'd think they could say why (Score:1)
They probably can't say why. Yet. (Score:3, Interesting)
The chain-reaction-implosion mechanism is a plausable one, but it still requires something to make it happen.. these tubes have been sitting under a lot of hydrostatic pressure (more than during the accident) for years now. Other phototube experiments have been doing similar things, none of which have ever seen this happen.
The failure mode for the tubes is likely to be leackage at the base (the back) which slowly degrades the vacuum inside... no implosion.
There was likely a large pressure change that happened all at once. I'd be looking for a rockburst: a small seizmic event in which the external rock pressure (which is very large) caused the wall to buckle and throw debris.
---Nathaniel, glad it didn't happen to HIS neutrino experiment.
Re:They probably can't say why. Yet. (Score:2)
This isn't quite true. Most of the tubes have been underwater for years, but this summer the tank was drained, dead tubes were replaced with new ones, and the tank was in the process of being refilled when the accident occurred. It was only about 2/3 full when it happened. I don't know yet if the first tube to go was brand new or not, but it's conceivable that as the water level was rising, pressure was increasing on a new tube that had a manufacturing defect and it imploded.
Although the most common failure mode is slow leakage, it only takes 1 / 11000 to implode and cause this kind of chain reaction.
(Loved your egg sandwhich paper, BTW.)
Re:They probably can't say why. Yet. (Score:1)
A note though - the possibility of a chain reaction implosion has been tested before (we're not idiots), and the tubes came through those tests ok. So it takes 1/11000 to implode in a particularly forceful way, compared to those tested.
Re:You'd think they could say why (Score:2)
Supernovae (Score:5, Informative)
While the accident is a tragic blow to some valid and interesting research, no one should lose any sleep over the possibility of being unable to analyze the next big supernova before it can be repaired. After all, supernovae on the scale of SN1987A occur once every few hundred years (the last two occurred in 1054 and 1572.) I suspect repairing Super-K will take significantly faster than that.
Even in the minuscule chance that a big supernova will occur in the meantime, Super-K isn't the only neutrino observatory around. The Sudsbury Neutrino Observatory [queensu.ca], a similar experiment, is online and producing some very good results.
Re:Supernovae (Score:4, Informative)
Oh, and in case anyone is misled... the neutrino observatories are assuredly NOT there to catch supernovae. They mostly detect neutrinos coming from the Sun, which are produced during the solar fusion process. The data from Super-K and SNO is shedding light on some problems in solar physics and elementary particle physics.
I doubt any grad student is patient enough to work on an experiment that gets one event every five hundred years.
Re:Supernovae (Score:4, Funny)
-Paul Komarek
Re:Supernovae (Score:1)
The REAL thing Super-K, Sudbury, et al. want to catch is a decaying proton. QCD theories say that a proton SHOULD be slightly unstable, with a half-life of something god-awful like 10^40 years. Therefore if you get 10^41 protons in one place and watch closely, you should get a hit per month. Unfortunately for the theories, nobody has seen one yet.
Re:Supernovae (Score:2)
Incorrect (Score:2, Informative)
SNO is indeed on the case for supernovae explosions, but the fact of the matter is that one observatory simply isn't enough; because of unvavoidable detector downtimes (maintanence, calibration, equipment failures, instrumental problems, etc etc) you can't run 24/7/365 with these guys. Also important is that one really wants both detectors live: you want verification that there really IS a supernova in progress before you swing the Hubble around to look for it.
Add to that the complimentary advantages of the detectors (angular resolution and high statistics in SK, antineutrino detection and energy resolution in SNO) and you really really don't want SK going down if you're a neutrino astrophysicsist interested in supernovae.
--Nathaniel, recent PhD with SNO
Re:Supernovae (Score:1)
Re:Supernovae (Score:2)
As an example, say you know I ate a burrito yesterday and I ate a burrito today. That doesn't mean that I eat a burrito every... oh wait. But that's TOTALLY different!
Re:Supernovae (Score:4, Interesting)
(No, neutrinos can't travel faster than the speed of light, just very close to it. The neutrinos produced by the core of the collapsing star escape easily through the stellar atmosphere since they interact weakly with matter, whereas the light took significantly longer to escape - think of how light travels more slowly in a block of glass. So the neutrinos reached us first.)
It was all tremendously exciting stuff, as you might imagine. Unbelievable serendipity.
Re:Supernovae (Score:2)
Good try, but not quite right either.
Neutrinos have very low crossectional area, so interact weakly with other stuff. Photons, however, interact strongly with electrons and protons and what have you. So during a SN collapse neutrinos escape first, while the other stuff begins to fall into the core of the dying star. Photons are generated during the collapse, but their escape from the SN is blocked by the collapsing matter. So photons have to "work" themselves via random scattering, which takes a lot more time, i.e. a few hours.
Re:Supernovae (Score:2)
So photons have to "work" themselves via random scattering.
In other words, by interacting with matter. Forgive me, but I don't quite see what you're correcting.
Re:Supernovae (Score:4, Informative)
SuperK used ordinary (but pure) water. SNO used pure "heavy water", that is water where the hydrogen has a neutron. SNO has recently added salt to their heavy water, since comparing the reaction rates with and without the salt will provide a very interesting ratio for understanding the mass heirarchy of neutrinos. Other detectors have used other media for detecting neutrinos, such as gallium.
Re:Supernovae (Score:1)
Yes, but you have to consider the time that it takes for the particles to travel the distance between their source and earth (speed of light... light years, you get it - same past-events sort of astronomy). It's possible that two supernovas occured 500, or even 500,000 years apart, but due to their relative distances from earth, say one being 100,000ly away, and one being 600,000ly away, if the further star's supernova occured 500,000 years earlier, it would arrive at relatively the same time as the 100k star. Given enough stars, and enough supernovas, this becomes as likely a possibility as the supernovas being evenly spaced around 500 years. Statistically speaking, it has the exact same probability as it taking 1000 years for the next one, (without further statistical knowledge).
At any rate, the miniscule chance isn't any more miniscule than the chance that a supernova will occur *at all*. So best to get the S-K up and running, so we have that rare opportunity to peer into a unique quantum event without our lifetime, and possibily unravel further the questions of the Universe.
Re:Supernovae (Score:3, Insightful)
Two things:
Deterministic probability doesn't work. A rate of 1/500 years means that in any given year, there's a 0.2% chance of a near-by supernova. The fact that there was one recently doesn't rule out that the next one could happen tomorrow. If you're going to watch for a SN, it's better to be ready for it as much of the time as possible. The fact that it's so rare makes it more important to be ready for it, not less. If one happened every day, no one would care about missing one.
SuperK was much more sensitive than the detectors used to detect the 1987A supernova. In other words, it doesn't need a "big" (nearby) supernova in order to be able to see it. A supernova which is further away, and not visible to the naked eye, would still produce a detectable neutrino pulse which would provide more scientific information than the 1987A observation with comparatively crude equipment. SuperK was even sensitive enough to detect extragalactic supernovae in the neighboring Andromeda galaxy. The ability to increase the volume of space you're observing means that you've greatly increased the observation rate as well. It's still a rare event, but it's no longer miniscule.
The answer is obvious (Score:4, Funny)
Just speculation, but... (Score:5, Informative)
Naturally this is all speculation, but it sounded plausible to me. Does anyone with a stronger chemistry background than mine know if this is a likely cause?
-sting3r
Re:Just speculation, but... (Score:3, Interesting)
The photocollectors measure Cerenkov radiation given off by high energy electrons and muons travelling through or being created in the tank. The mountain blocks the majority of external particles, so most are created when nuetrinos interact with Hydrogen nuclei. You don't get a lot of Cerenkov light from an event, and ionized impurities dissipate the light, so in order to work effectively, the water needs to be very pure.
I've never heard that detectors can be physically damaged by impure water, but I've never heard that they can't either. At the very least you already need pure water to gather data effectively regardless of any actual damage to equipment that impurities might cause.
Re:Just speculation, but... (Score:1)
Re:Just speculation, but... (Score:2)
Paul.
ph=7 (Score:1)
Re:Just speculation, but... (Score:2)
On the other hand, extremely pure water is itself a strong solvent for many things. That may be why they had to periodically change the water in the first place, that it gradually picked up impurities from the tank. But dissolving glass doesn't seem likely unless they really had the wrong kind of glass to start with.
The one thing that's clear is the "chain reaction." The photomultipliers are glass vacuum turbes 20 inches long. In air, one of these breaking would be like a cherry bomb or maybe even a hand-grenade. Deep under water it would be much more violent due to the higher pressure, also water transmits shock waves better than air. So unless the bulbs were well protected, any accident or defective bulb that broke one would start a shock wave that might break more, etc.
I have two theories about why the researchers are reportedly closed mouthed about two simple questions: What broke the first one, and why weren't they protected against a foreseeable chain reaction implosion. Perhaps "Yoshi dropped a wrench, and we didn't think of that" is just too embarrassing. Or, if Japanese scientists are anything like the American ones I've known, more likely they said just what happened, in jargon that is utterly incomprehensible to the reporter, repeated until he gave up. And they weren't even trying to obfuscate!
Neutrinos (Score:1, Informative)
Re:Neutrinos (Score:5, Informative)
No charge - correct. However, as the article mentions, recent experiments indicate that neutrinos have some mass. They also have spin 1/2, like electrons.
are very fast
This is related to mass. If they had zero mass, they would travel at the speed of light (like photons, which have no rest mass). However, if they do have mass, then they have to travel at slightly less than the speed of light.
Supernova observations can be used to estimate neutrino mass, by measuring the time difference between the arrival of visible light from the supernova, and the arrival of a neutrino pulse. Over those vast distances, even a very small difference in speed could lead to a significant difference in arrival times.
and pass through the planet so fast most detection has to be done underground...
This is a bit off. The interesting item is that most neutrinos pass right through the planet without interacting with any atoms. Because they interact so weakly with matter, a detector will only see a very small number of events caused by neutrinos, even though there are bazillions of neutrinos passing through it every second.
However, a detector on the surface of the earth would also see events not from neutrinos, but from other cosmic radiation like muons (actually, muons generated in the upper atmosphere by cosmic radiation). Going deep underground blocks out all particles except neutrinos, enabling the experimenters to get accurate measurements.
Re:Neutrinos (Score:2, Interesting)
> interacting with any atoms.
That is only the moderately interesting item. Now the really spectacular item is that these particles come to us in real time straight out of the core of a collapsing star, nary even noticing the star's outer layers
Re:Neutrinos (Score:1)
10 m/s^2 is close enough for rough calculations. Often it's more important to illustrate some general principle, rather than to come up with an "exact" number. Even 9.8 is an approximation (the 1986 CODATA recommended value is 9.80665), and 'g' isn't even a constant - it depends where you are on the earth (and on other factors).
I looked up neutrino last night online and the def was short: a particle that has no mass and who's charge is neutral.
Find a better reference. There's some material here [caltech.edu] that looks like it might be decent. I've seen better pages, but I don't have the bookmarks handy.
Pick A Punchline... (Score:5, Funny)
#1: These photos are fake!! Theyre from the inside of Studio 54!! Look up in the balcony in the 4th image, you can see Liza Minelli smokin a bong!
#2: It should be easy to build another Super K detector. Just look for trailer parks...Super K's tend to spring up in low-income areas where Wal-Mart hasn't already established a commercial presence..
#3: So SuperK is handicapped...Does that make it "Special K" ?
hee hee
Re:Pick A Punchline... (Score:1)
Didn't they have somehting like this in Canada? (Score:1)
Re:Didn't they have somehting like this in Canada? (Score:1)
http://www.sno.phy.queensu.ca [queensu.ca]
In other news... (Score:3, Funny)
Future Nytimes (Score:5, Funny)
Nov 12, 2050,
Scientists working with Japan's Super-Duper-Kamiokande anounce that they have lost containment on a micro black hole.
Apparently, an undergrad triped over the power cable.
Officials tell us that there is no need to panic. The mini black hole plunged straight to the center of the earth.
Happily, it will feed on the other mini black hole that was created when the first copy of Windows 2047 was burned onto CD and collapsed on its own data mass -- it was thought at the time that the universe was acting to protect both itself and the second law of Thermodynamics from Windows 2047's immense entropic mass.
There is some speculation that the black hole could actually provide enough energy to run Windows 2047, but Physicists are highly dubious.
Next generation Kamiokande (Score:2)
I'm not kidding. See, for example, this article [neutrino.kek.jp].
Slashdot checked a story?? (Score:4, Funny)
Re:Slashdot checked a story?? (Score:3, Funny)
Not only is it entirely atypical behavior for slashdot, one has to wonder why it is that chrisd didn't trust the New York Times? Did he think SuperK would give him more details than were already in the story?
Re:Slashdot checked a story?? (Score:1)
Yeah, and recently another editor criticised a submission's spelling [slashdot.org]. Incorrectly, of course - but still, it's the thought that counts.
This place is going to hell. I don't think I'll read it any more if they're going to check facts and spell correctly. The amount of discussion will plummet.
Re:Slashdot checked a story?? (Score:1)
In newspaper headline writing, at least in the US, it is common to omit the period.
Traditional styled newspapers, such as the International Hearld Tribune, and the Washington Post, capitalize each word in the headline and put a period at the end of the headline.
Generally, when the initial article of each word is capitalized, there is a period at the end of the sentence.
Look at these photos of the print editions of the IHT and the Washington Post. They follow the more traditional method for the lead story, but omit the period for all others:
http://www.iht.com/pdf/ihtfrontpage.pdf
http://www.washingtonpost.com/wp-dyn/print/imag
Re:Slashdot checked a story?? (Score:1)
Reports of its demise have been.... (Score:3, Informative)
It's a real shame, the loss the Japan lab, but I can't help but think that the lab being built in Western South Dakota will be even more important. I cannot find a decent date on completion, but this page [csmonitor.com] explains a newer, better neutrino detection lab being constructed right now.
The location even better (8,000 feet deep, insulated from nearly every form of interference) and the site has fanstastic support from the state [aberdeennews.com] and federal government [washington.edu]. The Japan lab isn't the only one in existance -- there are others in Ontario and the South Dakota lab has had facilities in operation since 1967.
The articles, both the Slashdot commentary and the NYTimes article, predict a savage demise. But other labs, especially the South Dakota lab, offer a huge potential to pickup the slack.
Re:Reports of its demise have been.... (Score:1)
SNO (Sudbury Neutrino Observatory, Ontario, Canada) and the Homestake mine (SD) are both interesting and useful experiments. You are referring to a recent proposal to keep Homestake operating with various new experiments and upgrades.. but these things are not replacements for SK. Each experiment is designed to look at different things. SK has done world-quality work to advance neutrino physics, and their detector is not easily replaced.
Homestake is NOT a replacement.
--Nathaniel, Neutrino Astrophysicist by day,
Bin Laden lauds neutrino detector blast (Score:5, Funny)
Ashcroft: Supernova could explode this week (Score:5, Funny)
Attorney General John Ashcroft said the warning -- the second this month -- was based on credible information, described by others as coming from sources outside the solar system. The information did not specify the type of supernova or whether the progenitor star would have a binary companion, Ashcroft said.
Ashcroft tried to walk a fine line between giving the public prompt and necessary warnings and not causing panic.
The alert "gives people a basis for continuing to live their lives the way they would otherwise live them, with this elevated sense of alertness or vigilance that comes from knowing that the planet could be vaporized any second," Ashcroft told a news conference.
FBI Director Robert Mueller said the previous supernova warning may have helped avert an explosion. Ashcroft said the absence of a supernova should not lull people "into a false sense of indifference."
"It's important for the American people to understand that these (alerts) are to be taken seriously," said Ashcroft, who canceled plans to travel Monday to Toronto to address a conference of near-earth asteroid experts.
Officials said the warning was based in part on intelligence that terrorists may set off a supernova within 1000 light years of the earth, in the aftermath of the Afghan bombings by U.S. and British forces.
"There certainly is intelligence that causes you to be concerned, and possibly that al-Qaida may be behind it," said one senior U.S. official, speaking only on condition of anonymity.
Ashcroft said that all neutrino observatories were advised to go on the highest alert. Federal agencies, meanwhile, were increasing security and authorities were boosting their efforts to keep suspected neutrinos from entering U.S. airspace- either by coming down from above or by emerging from the ground after a trip through the center of the earth.
Next Supernova (Score:1)
Re:Next Supernova (Score:5, Insightful)
Tom.
Re:Next Supernova (Score:1, Funny)
Gordon? (Score:1)
Nobel prize?!? (Score:1)
Am I the only one who finds this distasteful? I that what's really important here???
Re:Nobel prize?!? (Score:1)
Re:Nobel prize?!? (Score:1)
Re:Nobel prize?!? (Score:1)
- ordinarius
Anonymous physicists, sheesh. (Score:1)
SK is/was the far detector for the K2K long baseline neutrino experiment which is/was still running. With out SK, there isn't much point. SK was also planned to be used in another future lbl experiment, JHF-SK, which could pin down some of the mixing parameters (theta_13) and possibly put a limit on CP violation in the neutrino system.
So, this short sighted crass statement by this anonymous physicist really annoys me.
Insurance (Score:2, Interesting)
If this thing costs $30 million to fix, don'tcha think someone should have it insured against everything? Poor planning.
*trenton
Re:Insurance (Score:2)
Re:Insurance (Score:1)
Did you hear the one about the guy who bought fire insurance for his cigar, and then smoked it? It's true.
Re:Insurance (Score:1)
Re:Insurance (Score:2)
It would seem insurance companies not only make their business covering risks, but providing a service of advice and checks to make sure what you have is secure. For example, the company I work at has fire insurance. The insurance company works closely with us to make sure we have safe procedures when we need to work with welders, contractors, what happens if we need to service the fire system, etc. They make rules to help us have safer procedures so accidents are much less likely to happen. If we don't follow those rules, they will take steps to terminate our contract. Same with bad drivers. Traffic tickets are their check to make sure drivers are following customary procedures.
I'd imagine with a neutrino detector, an insurance company would consult with the researchers on proper procedures for enforcing safe conditions when working around the system. Insurance can be a win-win situation for both sides. They consult for a more reliable business and when things don't work out, they help get you going again for the next round.
Re:Insurance (Score:2)
Re:Insurance (Score:3, Informative)
Probably related to this... (Score:1)
another detector (Score:3, Interesting)
this may sound really strange... (Score:1)
Just curious (Score:2)
How will knowing they're out there and finding one will benefit people, besides in the science for science's sake sort of reasoning (not that I'm automatically opposed to that).
Re:Just curious (Score:2, Insightful)
Re:Just curious (Score:2, Insightful)
"Science is like sex. Sometimes something useful comes out, but that's not why we're doing it."
--Richard Feynman
We never know exactly what good will come of some obscure avenue of research. It may not produce anything truly significant or profitable. Still, curiosity about the world around us is a core element of our humanity. Would you take that away from us?
Re:Just curious (Score:2)
Of course you are, why else would you ask this question in the first place?
If you try to measure benefit in dollars, you will surely be disappointed. Try asking a better question.
Re:Just curious (Score:2)
Nobody is going to be building "neutrino guns" or "neutrino death rays" any time soon, and this is basic research, not applied research. But if inconsistencies or discrepancies in the Standard Model are discovered that relate to neutrino behavior it is possible that will eventually lead us to a Grand High Pooba Ultimate Theory of Everything. Or at least get us a couple of steps closer.
Such understanding may allow us to make big spaceships that cross the galaxy in months rather than millenia or smash planets with large pseudo-scientific beam weapons. Err.. well, maybe not, but I'm quite sure we haven't seen an end to the totally inconceivable but infinitely useful devices that come out of better scientific understanding, and basic research comes into the picture somewhere. My point is that rather being some weird peripheral piece of basic research, neutrino detection work is hot on the trail of figuring stuff out that WILL change our understanding of the universe and therefore will likely result in very cool devices and gadgets 50 years from now that we can't even imagine today.
Whoa, dude... (Score:5, Funny)
Ted: "And I'm Ted "Theodore" Logan."
Bill, Ted: "And together, we're WYLD PHYSICISTS!"
Bill: "Ok, the maintenance dudes are done. I'm gonna refill the water tank."
<cacophony of pops as the light detectors implode>
Ted: "Strange things are afoot at the Super-K."
Rufus: [reassuringly to the camera]: "They do get better."
~Philly
What did they expect? (Score:2, Funny)
Doh! (Score:1)
Free link? (Score:1)
Neutrinos are a .... (Score:1)
form of radiation, right? This happened in water in Japan, right? It must've been Godzilla! 8-)
SNO? (Score:2, Interesting)
Has anything come out of the Sudbury Neutrino Observatory? Net resources seem to be over my head.
The Sudbury Neutrino Observatory put 1000 tons of heavy water into a geodesic dome two miles deep in an abandoned nickel mine, up in Northern Ontario.
I last heard news about SNO about 6 years ago when they were building it, but haven't heard a thing since.
Anyone got any updates?
<a href=http://www.sno.phy.queensu.ca/>SNO</a>
Sounds like... (Score:2)
Re:almost slashdoted (Score:1)
Re:Devastating.... (Score:2)