How do you know when two objects are so called entangled?How are atoms entangled, and can it be done remotely?What laser and BBO are needed to create entangled laser streams?How can we know that all of the results for entangled photons are not chosen when the pair is created?how are quantum entangled states mantained?Determining if two qubits in an ensemble are entangledAre particles entangled after beta decay?How can we know if a pair of particles are entangled?Would it be possible to quantum entangle two large objects?Quantum-entangled macroscopic objectsHow do we know that two quantum states are entangled?

Accidentally deleted the "/usr/share" folder

Unidentified items in bicycle tube repair kit

Binary Numbers Magic Trick

Why do computer-science majors learn calculus?

What was the state of the German rail system in 1944?

Why does my Macbook overheat and use so much CPU and energy when on YouTube?

Was Hulk present at this event?

Which skill should be used for secret doors or traps: Perception or Investigation?

Pressure to defend the relevance of one's area of mathematics

I caught several of my students plagiarizing. Could it be my fault as a teacher?

How can I close a gap between my fence and my neighbor's that's on his side of the property line?

What happened to Ghost?

Pigeonhole Principle Problem

Would "lab meat" be able to feed a much larger global population

What happened to Rhaegal?

Why do money exchangers give different rates to different bills

CRT Oscilloscope - part of the plot is missing

Stark VS Thanos

Why are notes ordered like they are on a piano?

Field Length Validation for Desktop Application which has maximum 1000 characters

Write to EXCEL from SQL DB using VBA script

Attending a conference where my ex-supervisor and his collaborator are present, should I attend?

Did we get closer to another plane than we were supposed to, or was the pilot just protecting our delicate sensibilities?

Was Unix ever a single-user OS?



How do you know when two objects are so called entangled?


How are atoms entangled, and can it be done remotely?What laser and BBO are needed to create entangled laser streams?How can we know that all of the results for entangled photons are not chosen when the pair is created?how are quantum entangled states mantained?Determining if two qubits in an ensemble are entangledAre particles entangled after beta decay?How can we know if a pair of particles are entangled?Would it be possible to quantum entangle two large objects?Quantum-entangled macroscopic objectsHow do we know that two quantum states are entangled?













10












$begingroup$


I’m not asking how would you entangle two objects. I want to know how would you know they are entangled?










share|cite|improve this question











$endgroup$











  • $begingroup$
    van Enk et al (2007), "Experimental procedures for entanglement verification," Physical Review A 75, 052318 (authors.library.caltech.edu/8289) reviews a few methods, with emphasis on methods that are sufficient if we assume that quantum theory is correct. This is a superset of methods that are sufficient for ruling out local hidden variables.
    $endgroup$
    – Chiral Anomaly
    Mar 29 at 15:45











  • $begingroup$
    @ChiralAnomaly thanks, this Looks like a very thorough article and I will read through it.
    $endgroup$
    – Bill Alsept
    Mar 29 at 18:01















10












$begingroup$


I’m not asking how would you entangle two objects. I want to know how would you know they are entangled?










share|cite|improve this question











$endgroup$











  • $begingroup$
    van Enk et al (2007), "Experimental procedures for entanglement verification," Physical Review A 75, 052318 (authors.library.caltech.edu/8289) reviews a few methods, with emphasis on methods that are sufficient if we assume that quantum theory is correct. This is a superset of methods that are sufficient for ruling out local hidden variables.
    $endgroup$
    – Chiral Anomaly
    Mar 29 at 15:45











  • $begingroup$
    @ChiralAnomaly thanks, this Looks like a very thorough article and I will read through it.
    $endgroup$
    – Bill Alsept
    Mar 29 at 18:01













10












10








10


3



$begingroup$


I’m not asking how would you entangle two objects. I want to know how would you know they are entangled?










share|cite|improve this question











$endgroup$




I’m not asking how would you entangle two objects. I want to know how would you know they are entangled?







quantum-mechanics quantum-entanglement






share|cite|improve this question















share|cite|improve this question













share|cite|improve this question




share|cite|improve this question








edited Mar 29 at 7:13









Qmechanic

108k122021255




108k122021255










asked Mar 29 at 6:10









Bill AlseptBill Alsept

2,0541723




2,0541723











  • $begingroup$
    van Enk et al (2007), "Experimental procedures for entanglement verification," Physical Review A 75, 052318 (authors.library.caltech.edu/8289) reviews a few methods, with emphasis on methods that are sufficient if we assume that quantum theory is correct. This is a superset of methods that are sufficient for ruling out local hidden variables.
    $endgroup$
    – Chiral Anomaly
    Mar 29 at 15:45











  • $begingroup$
    @ChiralAnomaly thanks, this Looks like a very thorough article and I will read through it.
    $endgroup$
    – Bill Alsept
    Mar 29 at 18:01
















  • $begingroup$
    van Enk et al (2007), "Experimental procedures for entanglement verification," Physical Review A 75, 052318 (authors.library.caltech.edu/8289) reviews a few methods, with emphasis on methods that are sufficient if we assume that quantum theory is correct. This is a superset of methods that are sufficient for ruling out local hidden variables.
    $endgroup$
    – Chiral Anomaly
    Mar 29 at 15:45











  • $begingroup$
    @ChiralAnomaly thanks, this Looks like a very thorough article and I will read through it.
    $endgroup$
    – Bill Alsept
    Mar 29 at 18:01















$begingroup$
van Enk et al (2007), "Experimental procedures for entanglement verification," Physical Review A 75, 052318 (authors.library.caltech.edu/8289) reviews a few methods, with emphasis on methods that are sufficient if we assume that quantum theory is correct. This is a superset of methods that are sufficient for ruling out local hidden variables.
$endgroup$
– Chiral Anomaly
Mar 29 at 15:45





$begingroup$
van Enk et al (2007), "Experimental procedures for entanglement verification," Physical Review A 75, 052318 (authors.library.caltech.edu/8289) reviews a few methods, with emphasis on methods that are sufficient if we assume that quantum theory is correct. This is a superset of methods that are sufficient for ruling out local hidden variables.
$endgroup$
– Chiral Anomaly
Mar 29 at 15:45













$begingroup$
@ChiralAnomaly thanks, this Looks like a very thorough article and I will read through it.
$endgroup$
– Bill Alsept
Mar 29 at 18:01




$begingroup$
@ChiralAnomaly thanks, this Looks like a very thorough article and I will read through it.
$endgroup$
– Bill Alsept
Mar 29 at 18:01










1 Answer
1






active

oldest

votes


















15












$begingroup$

In general you can't. That is, if you have just two particles you cannot tell whether they are entangled or not.



Entanglement reveals itself by correlations. For example if you take many pairs of particles you may find that their properties are always correlated, e.g. their spins are always opposite, and this tells you that whatever mechanism is generating the pairs of particles is entangling them. But this shows up only with repeated measurements. A single measurement cannot tell you the particles are correlated since their spins could have the values you observe just by chance.






share|cite|improve this answer









$endgroup$












  • $begingroup$
    Thanks john, I assumed it involved measuring many pairs. I just wanted to confirm if correlation was the main thing we were looking for. Has anyone ever correlated two large objects which produced measurements of cos2?
    $endgroup$
    – Bill Alsept
    Mar 29 at 7:06











  • $begingroup$
    @BillAlsept That's very technically complicated. Measurement affects the object (as does any other interaction). The bigger the object, the harder it is to isolate from all those influences, and the harder it is to have any confidence in your measurement. There's no reason to expect entanglement "stops" at some scale, but there's many reasons to expect that the bigger the object, the harder it gets to prove entanglement. But we do know it works on a macroscopic scale, because quantum computers are macroscopic (without relying on entanglement of every individual atom involved).
    $endgroup$
    – Luaan
    Mar 29 at 9:21










  • $begingroup$
    @BillAlsept as far as I know this expt is the largest objects ever entangled
    $endgroup$
    – John Rennie
    Mar 29 at 12:07










  • $begingroup$
    @JohnRennie The article is very interesting but it says the two objects are coupled to a circuit and that the circuit keeps the two objects so called entangled. Isn’t that still just a local process? This is probably more of a question for chat But the only correlations I can think of are mirrored variables from a common source. Which is not really entanglement and why I say so called entanglement. I guess what I’m saying is I could draw up an experiment where many pairs of large objects are correlated with given variables that when tested would give the results of cos2. Thanks
    $endgroup$
    – Bill Alsept
    Mar 29 at 15:24











Your Answer








StackExchange.ready(function()
var channelOptions =
tags: "".split(" "),
id: "151"
;
initTagRenderer("".split(" "), "".split(" "), channelOptions);

StackExchange.using("externalEditor", function()
// Have to fire editor after snippets, if snippets enabled
if (StackExchange.settings.snippets.snippetsEnabled)
StackExchange.using("snippets", function()
createEditor();
);

else
createEditor();

);

function createEditor()
StackExchange.prepareEditor(
heartbeatType: 'answer',
autoActivateHeartbeat: false,
convertImagesToLinks: false,
noModals: true,
showLowRepImageUploadWarning: true,
reputationToPostImages: null,
bindNavPrevention: true,
postfix: "",
imageUploader:
brandingHtml: "Powered by u003ca class="icon-imgur-white" href="https://imgur.com/"u003eu003c/au003e",
contentPolicyHtml: "User contributions licensed under u003ca href="https://creativecommons.org/licenses/by-sa/3.0/"u003ecc by-sa 3.0 with attribution requiredu003c/au003e u003ca href="https://stackoverflow.com/legal/content-policy"u003e(content policy)u003c/au003e",
allowUrls: true
,
noCode: true, onDemand: true,
discardSelector: ".discard-answer"
,immediatelyShowMarkdownHelp:true
);



);













draft saved

draft discarded


















StackExchange.ready(
function ()
StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2fphysics.stackexchange.com%2fquestions%2f469308%2fhow-do-you-know-when-two-objects-are-so-called-entangled%23new-answer', 'question_page');

);

Post as a guest















Required, but never shown

























1 Answer
1






active

oldest

votes








1 Answer
1






active

oldest

votes









active

oldest

votes






active

oldest

votes









15












$begingroup$

In general you can't. That is, if you have just two particles you cannot tell whether they are entangled or not.



Entanglement reveals itself by correlations. For example if you take many pairs of particles you may find that their properties are always correlated, e.g. their spins are always opposite, and this tells you that whatever mechanism is generating the pairs of particles is entangling them. But this shows up only with repeated measurements. A single measurement cannot tell you the particles are correlated since their spins could have the values you observe just by chance.






share|cite|improve this answer









$endgroup$












  • $begingroup$
    Thanks john, I assumed it involved measuring many pairs. I just wanted to confirm if correlation was the main thing we were looking for. Has anyone ever correlated two large objects which produced measurements of cos2?
    $endgroup$
    – Bill Alsept
    Mar 29 at 7:06











  • $begingroup$
    @BillAlsept That's very technically complicated. Measurement affects the object (as does any other interaction). The bigger the object, the harder it is to isolate from all those influences, and the harder it is to have any confidence in your measurement. There's no reason to expect entanglement "stops" at some scale, but there's many reasons to expect that the bigger the object, the harder it gets to prove entanglement. But we do know it works on a macroscopic scale, because quantum computers are macroscopic (without relying on entanglement of every individual atom involved).
    $endgroup$
    – Luaan
    Mar 29 at 9:21










  • $begingroup$
    @BillAlsept as far as I know this expt is the largest objects ever entangled
    $endgroup$
    – John Rennie
    Mar 29 at 12:07










  • $begingroup$
    @JohnRennie The article is very interesting but it says the two objects are coupled to a circuit and that the circuit keeps the two objects so called entangled. Isn’t that still just a local process? This is probably more of a question for chat But the only correlations I can think of are mirrored variables from a common source. Which is not really entanglement and why I say so called entanglement. I guess what I’m saying is I could draw up an experiment where many pairs of large objects are correlated with given variables that when tested would give the results of cos2. Thanks
    $endgroup$
    – Bill Alsept
    Mar 29 at 15:24















15












$begingroup$

In general you can't. That is, if you have just two particles you cannot tell whether they are entangled or not.



Entanglement reveals itself by correlations. For example if you take many pairs of particles you may find that their properties are always correlated, e.g. their spins are always opposite, and this tells you that whatever mechanism is generating the pairs of particles is entangling them. But this shows up only with repeated measurements. A single measurement cannot tell you the particles are correlated since their spins could have the values you observe just by chance.






share|cite|improve this answer









$endgroup$












  • $begingroup$
    Thanks john, I assumed it involved measuring many pairs. I just wanted to confirm if correlation was the main thing we were looking for. Has anyone ever correlated two large objects which produced measurements of cos2?
    $endgroup$
    – Bill Alsept
    Mar 29 at 7:06











  • $begingroup$
    @BillAlsept That's very technically complicated. Measurement affects the object (as does any other interaction). The bigger the object, the harder it is to isolate from all those influences, and the harder it is to have any confidence in your measurement. There's no reason to expect entanglement "stops" at some scale, but there's many reasons to expect that the bigger the object, the harder it gets to prove entanglement. But we do know it works on a macroscopic scale, because quantum computers are macroscopic (without relying on entanglement of every individual atom involved).
    $endgroup$
    – Luaan
    Mar 29 at 9:21










  • $begingroup$
    @BillAlsept as far as I know this expt is the largest objects ever entangled
    $endgroup$
    – John Rennie
    Mar 29 at 12:07










  • $begingroup$
    @JohnRennie The article is very interesting but it says the two objects are coupled to a circuit and that the circuit keeps the two objects so called entangled. Isn’t that still just a local process? This is probably more of a question for chat But the only correlations I can think of are mirrored variables from a common source. Which is not really entanglement and why I say so called entanglement. I guess what I’m saying is I could draw up an experiment where many pairs of large objects are correlated with given variables that when tested would give the results of cos2. Thanks
    $endgroup$
    – Bill Alsept
    Mar 29 at 15:24













15












15








15





$begingroup$

In general you can't. That is, if you have just two particles you cannot tell whether they are entangled or not.



Entanglement reveals itself by correlations. For example if you take many pairs of particles you may find that their properties are always correlated, e.g. their spins are always opposite, and this tells you that whatever mechanism is generating the pairs of particles is entangling them. But this shows up only with repeated measurements. A single measurement cannot tell you the particles are correlated since their spins could have the values you observe just by chance.






share|cite|improve this answer









$endgroup$



In general you can't. That is, if you have just two particles you cannot tell whether they are entangled or not.



Entanglement reveals itself by correlations. For example if you take many pairs of particles you may find that their properties are always correlated, e.g. their spins are always opposite, and this tells you that whatever mechanism is generating the pairs of particles is entangling them. But this shows up only with repeated measurements. A single measurement cannot tell you the particles are correlated since their spins could have the values you observe just by chance.







share|cite|improve this answer












share|cite|improve this answer



share|cite|improve this answer










answered Mar 29 at 6:41









John RennieJohn Rennie

281k45563811




281k45563811











  • $begingroup$
    Thanks john, I assumed it involved measuring many pairs. I just wanted to confirm if correlation was the main thing we were looking for. Has anyone ever correlated two large objects which produced measurements of cos2?
    $endgroup$
    – Bill Alsept
    Mar 29 at 7:06











  • $begingroup$
    @BillAlsept That's very technically complicated. Measurement affects the object (as does any other interaction). The bigger the object, the harder it is to isolate from all those influences, and the harder it is to have any confidence in your measurement. There's no reason to expect entanglement "stops" at some scale, but there's many reasons to expect that the bigger the object, the harder it gets to prove entanglement. But we do know it works on a macroscopic scale, because quantum computers are macroscopic (without relying on entanglement of every individual atom involved).
    $endgroup$
    – Luaan
    Mar 29 at 9:21










  • $begingroup$
    @BillAlsept as far as I know this expt is the largest objects ever entangled
    $endgroup$
    – John Rennie
    Mar 29 at 12:07










  • $begingroup$
    @JohnRennie The article is very interesting but it says the two objects are coupled to a circuit and that the circuit keeps the two objects so called entangled. Isn’t that still just a local process? This is probably more of a question for chat But the only correlations I can think of are mirrored variables from a common source. Which is not really entanglement and why I say so called entanglement. I guess what I’m saying is I could draw up an experiment where many pairs of large objects are correlated with given variables that when tested would give the results of cos2. Thanks
    $endgroup$
    – Bill Alsept
    Mar 29 at 15:24
















  • $begingroup$
    Thanks john, I assumed it involved measuring many pairs. I just wanted to confirm if correlation was the main thing we were looking for. Has anyone ever correlated two large objects which produced measurements of cos2?
    $endgroup$
    – Bill Alsept
    Mar 29 at 7:06











  • $begingroup$
    @BillAlsept That's very technically complicated. Measurement affects the object (as does any other interaction). The bigger the object, the harder it is to isolate from all those influences, and the harder it is to have any confidence in your measurement. There's no reason to expect entanglement "stops" at some scale, but there's many reasons to expect that the bigger the object, the harder it gets to prove entanglement. But we do know it works on a macroscopic scale, because quantum computers are macroscopic (without relying on entanglement of every individual atom involved).
    $endgroup$
    – Luaan
    Mar 29 at 9:21










  • $begingroup$
    @BillAlsept as far as I know this expt is the largest objects ever entangled
    $endgroup$
    – John Rennie
    Mar 29 at 12:07










  • $begingroup$
    @JohnRennie The article is very interesting but it says the two objects are coupled to a circuit and that the circuit keeps the two objects so called entangled. Isn’t that still just a local process? This is probably more of a question for chat But the only correlations I can think of are mirrored variables from a common source. Which is not really entanglement and why I say so called entanglement. I guess what I’m saying is I could draw up an experiment where many pairs of large objects are correlated with given variables that when tested would give the results of cos2. Thanks
    $endgroup$
    – Bill Alsept
    Mar 29 at 15:24















$begingroup$
Thanks john, I assumed it involved measuring many pairs. I just wanted to confirm if correlation was the main thing we were looking for. Has anyone ever correlated two large objects which produced measurements of cos2?
$endgroup$
– Bill Alsept
Mar 29 at 7:06





$begingroup$
Thanks john, I assumed it involved measuring many pairs. I just wanted to confirm if correlation was the main thing we were looking for. Has anyone ever correlated two large objects which produced measurements of cos2?
$endgroup$
– Bill Alsept
Mar 29 at 7:06













$begingroup$
@BillAlsept That's very technically complicated. Measurement affects the object (as does any other interaction). The bigger the object, the harder it is to isolate from all those influences, and the harder it is to have any confidence in your measurement. There's no reason to expect entanglement "stops" at some scale, but there's many reasons to expect that the bigger the object, the harder it gets to prove entanglement. But we do know it works on a macroscopic scale, because quantum computers are macroscopic (without relying on entanglement of every individual atom involved).
$endgroup$
– Luaan
Mar 29 at 9:21




$begingroup$
@BillAlsept That's very technically complicated. Measurement affects the object (as does any other interaction). The bigger the object, the harder it is to isolate from all those influences, and the harder it is to have any confidence in your measurement. There's no reason to expect entanglement "stops" at some scale, but there's many reasons to expect that the bigger the object, the harder it gets to prove entanglement. But we do know it works on a macroscopic scale, because quantum computers are macroscopic (without relying on entanglement of every individual atom involved).
$endgroup$
– Luaan
Mar 29 at 9:21












$begingroup$
@BillAlsept as far as I know this expt is the largest objects ever entangled
$endgroup$
– John Rennie
Mar 29 at 12:07




$begingroup$
@BillAlsept as far as I know this expt is the largest objects ever entangled
$endgroup$
– John Rennie
Mar 29 at 12:07












$begingroup$
@JohnRennie The article is very interesting but it says the two objects are coupled to a circuit and that the circuit keeps the two objects so called entangled. Isn’t that still just a local process? This is probably more of a question for chat But the only correlations I can think of are mirrored variables from a common source. Which is not really entanglement and why I say so called entanglement. I guess what I’m saying is I could draw up an experiment where many pairs of large objects are correlated with given variables that when tested would give the results of cos2. Thanks
$endgroup$
– Bill Alsept
Mar 29 at 15:24




$begingroup$
@JohnRennie The article is very interesting but it says the two objects are coupled to a circuit and that the circuit keeps the two objects so called entangled. Isn’t that still just a local process? This is probably more of a question for chat But the only correlations I can think of are mirrored variables from a common source. Which is not really entanglement and why I say so called entanglement. I guess what I’m saying is I could draw up an experiment where many pairs of large objects are correlated with given variables that when tested would give the results of cos2. Thanks
$endgroup$
– Bill Alsept
Mar 29 at 15:24

















draft saved

draft discarded
















































Thanks for contributing an answer to Physics Stack Exchange!


  • Please be sure to answer the question. Provide details and share your research!

But avoid


  • Asking for help, clarification, or responding to other answers.

  • Making statements based on opinion; back them up with references or personal experience.

Use MathJax to format equations. MathJax reference.


To learn more, see our tips on writing great answers.




draft saved


draft discarded














StackExchange.ready(
function ()
StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2fphysics.stackexchange.com%2fquestions%2f469308%2fhow-do-you-know-when-two-objects-are-so-called-entangled%23new-answer', 'question_page');

);

Post as a guest















Required, but never shown





















































Required, but never shown














Required, but never shown












Required, but never shown







Required, but never shown

































Required, but never shown














Required, but never shown












Required, but never shown







Required, but never shown







Popular posts from this blog

Færeyskur hestur Heimild | Tengill | Tilvísanir | LeiðsagnarvalRossið - síða um færeyska hrossið á færeyskuGott ár hjá færeyska hestinum

He _____ here since 1970 . Answer needed [closed]What does “since he was so high” mean?Meaning of “catch birds for”?How do I ensure “since” takes the meaning I want?“Who cares here” meaningWhat does “right round toward” mean?the time tense (had now been detected)What does the phrase “ring around the roses” mean here?Correct usage of “visited upon”Meaning of “foiled rail sabotage bid”It was the third time I had gone to Rome or It is the third time I had been to Rome

Slayer Innehåll Historia | Stil, komposition och lyrik | Bandets betydelse och framgångar | Sidoprojekt och samarbeten | Kontroverser | Medlemmar | Utmärkelser och nomineringar | Turnéer och festivaler | Diskografi | Referenser | Externa länkar | Navigeringsmenywww.slayer.net”Metal Massacre vol. 1””Metal Massacre vol. 3””Metal Massacre Volume III””Show No Mercy””Haunting the Chapel””Live Undead””Hell Awaits””Reign in Blood””Reign in Blood””Gold & Platinum – Reign in Blood””Golden Gods Awards Winners”originalet”Kerrang! Hall Of Fame””Slayer Looks Back On 37-Year Career In New Video Series: Part Two””South of Heaven””Gold & Platinum – South of Heaven””Seasons in the Abyss””Gold & Platinum - Seasons in the Abyss””Divine Intervention””Divine Intervention - Release group by Slayer””Gold & Platinum - Divine Intervention””Live Intrusion””Undisputed Attitude””Abolish Government/Superficial Love””Release “Slatanic Slaughter: A Tribute to Slayer” by Various Artists””Diabolus in Musica””Soundtrack to the Apocalypse””God Hates Us All””Systematic - Relationships””War at the Warfield””Gold & Platinum - War at the Warfield””Soundtrack to the Apocalypse””Gold & Platinum - Still Reigning””Metallica, Slayer, Iron Mauden Among Winners At Metal Hammer Awards””Eternal Pyre””Eternal Pyre - Slayer release group””Eternal Pyre””Metal Storm Awards 2006””Kerrang! Hall Of Fame””Slayer Wins 'Best Metal' Grammy Award””Slayer Guitarist Jeff Hanneman Dies””Bullet-For My Valentine booed at Metal Hammer Golden Gods Awards””Unholy Aliance””The End Of Slayer?””Slayer: We Could Thrash Out Two More Albums If We're Fast Enough...””'The Unholy Alliance: Chapter III' UK Dates Added”originalet”Megadeth And Slayer To Co-Headline 'Canadian Carnage' Trek”originalet”World Painted Blood””Release “World Painted Blood” by Slayer””Metallica Heading To Cinemas””Slayer, Megadeth To Join Forces For 'European Carnage' Tour - Dec. 18, 2010”originalet”Slayer's Hanneman Contracts Acute Infection; Band To Bring In Guest Guitarist””Cannibal Corpse's Pat O'Brien Will Step In As Slayer's Guest Guitarist”originalet”Slayer’s Jeff Hanneman Dead at 49””Dave Lombardo Says He Made Only $67,000 In 2011 While Touring With Slayer””Slayer: We Do Not Agree With Dave Lombardo's Substance Or Timeline Of Events””Slayer Welcomes Drummer Paul Bostaph Back To The Fold””Slayer Hope to Unveil Never-Before-Heard Jeff Hanneman Material on Next Album””Slayer Debut New Song 'Implode' During Surprise Golden Gods Appearance””Release group Repentless by Slayer””Repentless - Slayer - Credits””Slayer””Metal Storm Awards 2015””Slayer - to release comic book "Repentless #1"””Slayer To Release 'Repentless' 6.66" Vinyl Box Set””BREAKING NEWS: Slayer Announce Farewell Tour””Slayer Recruit Lamb of God, Anthrax, Behemoth + Testament for Final Tour””Slayer lägger ner efter 37 år””Slayer Announces Second North American Leg Of 'Final' Tour””Final World Tour””Slayer Announces Final European Tour With Lamb of God, Anthrax And Obituary””Slayer To Tour Europe With Lamb of God, Anthrax And Obituary””Slayer To Play 'Last French Show Ever' At Next Year's Hellfst””Slayer's Final World Tour Will Extend Into 2019””Death Angel's Rob Cavestany On Slayer's 'Farewell' Tour: 'Some Of Us Could See This Coming'””Testament Has No Plans To Retire Anytime Soon, Says Chuck Billy””Anthrax's Scott Ian On Slayer's 'Farewell' Tour Plans: 'I Was Surprised And I Wasn't Surprised'””Slayer””Slayer's Morbid Schlock””Review/Rock; For Slayer, the Mania Is the Message””Slayer - Biography””Slayer - Reign In Blood”originalet”Dave Lombardo””An exclusive oral history of Slayer”originalet”Exclusive! Interview With Slayer Guitarist Jeff Hanneman”originalet”Thinking Out Loud: Slayer's Kerry King on hair metal, Satan and being polite””Slayer Lyrics””Slayer - Biography””Most influential artists for extreme metal music””Slayer - Reign in Blood””Slayer guitarist Jeff Hanneman dies aged 49””Slatanic Slaughter: A Tribute to Slayer””Gateway to Hell: A Tribute to Slayer””Covered In Blood””Slayer: The Origins of Thrash in San Francisco, CA.””Why They Rule - #6 Slayer”originalet”Guitar World's 100 Greatest Heavy Metal Guitarists Of All Time”originalet”The fans have spoken: Slayer comes out on top in readers' polls”originalet”Tribute to Jeff Hanneman (1964-2013)””Lamb Of God Frontman: We Sound Like A Slayer Rip-Off””BEHEMOTH Frontman Pays Tribute To SLAYER's JEFF HANNEMAN””Slayer, Hatebreed Doing Double Duty On This Year's Ozzfest””System of a Down””Lacuna Coil’s Andrea Ferro Talks Influences, Skateboarding, Band Origins + More””Slayer - Reign in Blood””Into The Lungs of Hell””Slayer rules - en utställning om fans””Slayer and Their Fans Slashed Through a No-Holds-Barred Night at Gas Monkey””Home””Slayer””Gold & Platinum - The Big 4 Live from Sofia, Bulgaria””Exclusive! Interview With Slayer Guitarist Kerry King””2008-02-23: Wiltern, Los Angeles, CA, USA””Slayer's Kerry King To Perform With Megadeth Tonight! - Oct. 21, 2010”originalet”Dave Lombardo - Biography”Slayer Case DismissedArkiveradUltimate Classic Rock: Slayer guitarist Jeff Hanneman dead at 49.”Slayer: "We could never do any thing like Some Kind Of Monster..."””Cannibal Corpse'S Pat O'Brien Will Step In As Slayer'S Guest Guitarist | The Official Slayer Site”originalet”Slayer Wins 'Best Metal' Grammy Award””Slayer Guitarist Jeff Hanneman Dies””Kerrang! Awards 2006 Blog: Kerrang! Hall Of Fame””Kerrang! Awards 2013: Kerrang! Legend”originalet”Metallica, Slayer, Iron Maien Among Winners At Metal Hammer Awards””Metal Hammer Golden Gods Awards””Bullet For My Valentine Booed At Metal Hammer Golden Gods Awards””Metal Storm Awards 2006””Metal Storm Awards 2015””Slayer's Concert History””Slayer - Relationships””Slayer - Releases”Slayers officiella webbplatsSlayer på MusicBrainzOfficiell webbplatsSlayerSlayerr1373445760000 0001 1540 47353068615-5086262726cb13906545x(data)6033143kn20030215029