Pseudoscience or real?

quantumgravityresearch.org/

quantumgravityresearch.org/emergence-theory-overview

quantumgravityresearch.org/publications

youtube.com/watch?v=EWI6SgPxzKc

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rationalwiki.org/wiki/Klee_Irwin
twitter.com/NSFWRedditGif

is it peer reviewed?

Bunch of CS brainlets that failed to get hired by Google ride Aaronson's dick (or reputation) by misinterpreting QM, GR and overally lacking any ground in differential geometry and topology (just like Scotty).
Well done boys, you're almost as obviously retarded when it comes to theoretical physics as Aaronson is, while being even more confident about your (mis)understanding.

This reads like a more sophisticated version of the time cube.

Where's the evidence, stupid?

Do you count all CS people as brainlets, or just code-monkey web-dev types and people working on bullshit? Like, do people programming for NASA or neural net researchers count?

Of all the STEM, CS people are the most arrogant folks i've worked with. They are more arrogant than EEs and that says a lot. I don't remember CS grad that would be aware of his shallow understanding of physics. I've met a fair share of CS grads while working on a joint project and they always felt they were in position to contribute in other ways than by doing their fucking work (programming). I'm sorry but having gone through QM 1 doesn't make you an expert on it, neither does reading a popsci garbage. These people didn't even have an undergrad-level understanding of theoretical physics like you would get from reading Landau, but they somehow felt compelled to comment on how physicists are wrong and many-words or some other crackpottery is the truth.
No i don't count all of CS people as brainlets, i as a physicists certainly don't understand algorithms and data structurs beyond the bare minimum that every STEM student has to, i wouldn't be able to do your undergrad homework in grammars and automata theory, i couldn't prove your introsort implementation is correct, i couldn't do most things CS people do even though some of their work i could. But i sure as hell am not arrogant enough to tell them how they should do their work, based on my shallow understanding of their field. Yet most of them feel like they know QM better than a fucking theoretical physicist.
And i don't count code monkeys as CS. CS is a focused applied math degree here in yuropoor. Neural net researchers are not the best CS has to offer (in fact it's the worst as they only use lingebra and measure theory), the most respect i have for guys doing formal verification as they are the most intelligent and the most humble of all CS people, rivaling mathematicians in that instead of "lulz you physicist wrong, bohmian mechanics is real cuz i read it on some blog", they go "wow, where can i learn more about that".

Jesus christ what the fuck, this is some next level crackpottery.

>A few of years later, the group realized that emergence theory predicts a poorly understood phenomenon known as low energy nuclear reactions (LENR) shown to occur in over 1,000 published papers.

Hurr durr my theory of quantum gravity predicts cold fusion.
Atleast they are not hiding it.

Ok here's a quick tip to decide if something claiming to be scientific is crackpottery:
Does it mention consciousness? Does it mention fibonacci/golden ratio? If the answer to any of those questions is yes, don't waste your time.

>E8
Oh boy, not this again.

E8 is emerging all over theoretical physics, it's nothing surprising since it's pretty elementary structur in theory of Lie groups and quite frankly, nothing useful, their video on quasicrystals was quite alright up to around 3 minutes. But these absolute imbeciles can't comprehend uncertainity principle and think that the universe is discrete beyond planck length. And there are dozens of such failures throughout the video, i won't even bother reading the papers because just their names sound off-putting and when they introduce so many retardisms in their videos, their papers can't be so dramatically better.

>Is it pseudoscience?
>quantum
Yup.

Oddly specific, and I'm sure you realize it could just be a trend in your area, right? You're just speaking in absolutes to shorten down what you have to say, right? Anyways thanks for the fleshed-out reply, breddy high quality.

>10 seconds into video
>we gon explain cold fusion n shiet
dropped

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Hi user. I largely agree with your assessment of CS folks and arrogance. I am a yuropoor theoretical CS researcher in the field of formal verification; and yet I have a strong opinion on quantum mechanics and many-worlds, based on little more than QM 1. I don't, however, have a strong opinion on any other unsettled topics in physics; and I think my position on this is representative for quite a few computer scientists with QM opinions.

I don't know much physics beyond high school level, and my isolated understanding of quantum mechanics is quite limited even by physics undergrad standards. And yet on the specific topic of interpretations of quantum mechanics -- unlike all other open questions in physics -- I feel quite licensed to have a strong opinion, and it is because of expertise that derives from my CS background.

There is a generic scientific skill that I think is, on average, much more developed amongst CS folks than it is among physics folks. That is the skill of *taking a formal system seriously* -- understanding what a formal system means in practice, what it has to say about mundane situations, what experiences it predicts, and how common and uncommon situations play out in the setting of the formal system. You would expect this to largely go hand in hand with formal skill, but this turns out not to be the case -- it is very easy to have a very deep understanding of a formal system, and yet totally miss how your pet formal system predicts something weird in a common scenario that you are not actually experiencing.

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As said, I think this skill is generally well-developed in the computer science field, to a degree that it is not even in most other formal sciences such as theoretical physics. Programming builds this skill, of course -- about half of debugging consists of tracking down consequences of your design that you never realized until you tested it -- and theoretical computer science contains quite a few other activities that rely heavily on this skill.

And I think that the whole open question regarding the interpretation of quantum mechanics is largely an exercise in applying this skill correctly. In particular, I think that quantum mechanics, taken for granted and applied all the way through, predicts many-worlds outright, and you would have to apply some EXTRA rule to the formal system to forbid it. And moreover, I think that quantum-mechanics-with-many-worlds outright predicts the behavior of quantum systems that we see in experiments, such as the apparent nondeterminism -- except for the Born probabilities, which is the big open question in this pet view of mine.

(It does not help that systems behaving superficially like many-worlds quantum physics are reasonably common in computer science, which lends the interpretation more mundanity in computer-science-land than it has in other scientific communities. But I don't think this is the real reason behind the stereotypical common support of many-worlds among computer sciency folks.)

Utter garbage

rationalwiki.org/wiki/Klee_Irwin

>He was also a co-founder of Ray Kurzweil's Singularity "University" in 2007.[13]
OY VEY

Yes, had to squeeze that in 2k words, sorry for all the stylistic and grammatic errors or if something isn't clear, i was in a hurry and it was just "brain to keyboard". We've had long debates on this topic among my peers (CS including) and noticed that the more mature a mathematician you are, the less arrogant or ignorant of your lack of understanding you are. Personal anecdotes are terrible data set to draw conclusions from, but that's how it seem to work on my university as we all noticed it.
I've noticed QM and especially many-worlds is popular topic among CS people. You might be interested in Aaronson's information-theoretical approach. I'm not familiar with your math background, but if you are grad then you're more than ready for Landau (especially volumes 3,4,5(9) but i highly suggest building up to it) to get the basic rigor down. I have yet to see someone go through Landau and still think many-words isn't wrong. It is very, very worthwhile to read it even for an armchair-physicist just to hold his own in a discourse with an actual theoretical physicist. Meanwhile, if i have some time next week, i'll try to explain in layman terms and undergrad (or highschool) math why many-worlds doesn't make sense.
Now since you seem to argue that copenhagen requires extra axioms and that makes it "uglier" or more artificial, what is your opinion on many-wolrds not being CPT invariant? Does it not bother you that many-worlds is incompatible with string theory?

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>You might be interested in Aaronson's information-theoretical approach.
I have looked at it in the past, but did not find it convincing. Probabilities are artifacts of imperfect knowledge in a mind, not pieces of nature; any system of physics that takes probabilities as a primitive, rather than as something necessarily arising in minds due to a non-probability-based underlying physics that forbids perfect knowledge, seems seriously misguided to me. (Obviously, this further relates to me favoring many worlds over Copenhagen.)

>I'm not familiar with your math background, but if you are grad then you're more than ready for Landau (especially volumes 3,4,5(9) but i highly suggest building up to it) to get the basic rigor down.
Yeah, I should probably study a real quantum mechanics textbook at some point. My non-discrete math is a bit rusty, but that's easily remedied.

>I have yet to see someone go through Landau and still think many-words isn't wrong.
That is very interesting. I am seriously considering working through this textbook, if I can find some time.

Yet, how does this square with the fact that many worlds is an accepted position among physicists? It may not be a majority position, but neither is it unheard of or even particularly uncommon, as I understand it. Surely that is not a matter of all those physicists never having read Landau?

>Meanwhile, if i have some time next week, i'll try to explain in layman terms and undergrad (or highschool) math why many-worlds doesn't make sense.
That would be awesome. Seriously.

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>Now since you seem to argue that copenhagen requires extra axioms and that makes it "uglier" or more artificial
I do indeed. Are you implying you disagree? Surely, the notion of wavefunction collapse is something that is NOT part of the equations of quantum mechanics, and therefore an additional axiom that demands its own evidence and justification?

>what is your opinion on many-wolrds not being CPT invariant?
Can you explain that? As I understand it, many-worlds *is* CPT invariant, whereas the Copenhagen interpretation is not (wavefunction collapse obviously violates it).

>Does it not bother you that many-worlds is incompatible with string theory?
I don't know anything about string theory, so this cannot inform my opinions either way -- but I was under the impression that string theory is generally considered to be on MUCH shakier ground than quantum mechanics, and therefore a poor test of it either way.

Gravity isnt a fundamental force. Its a pseudoforce, or fictitious force if you prefer, from a non-inertial frame of reference. So yeah, pseudoscience

What a complete ass.

I personally disagree with it as well, but i found many CS students like it because it puts QM in a more familiar terms to them. But now you're entering an area i'm not willing to enter, consciousness. Unlike many-worlds vs copenhagen, this one is a philosophical area for the foreseeable future.
>Yeah, I should probably study a real quantum mechanics textbook at some point. My non-discrete math is a bit rusty, but that's easily remedied.
Yeah as a somewhat ambitious physicist, i've read the first three volumes in highschool, the math is really basic most of the times and just taking skimming through Zorich and Strang should be enough to read it.
>That is very interesting. I am seriously considering working through this textbook, if I can find some time.
It takes a lot of time since it's at least 4 volumes to build up to QM, but it's THE book for theoretical physics. It will teach you how to look at things like a physicist and then you might understand why copenhagen is favoured.
>Yet, how does this square with the fact that many worlds is an accepted position among physicists? It may not be a majority position, but neither is it unheard of or even particularly uncommon, as I understand it. Surely that is not a matter of all those physicists never having read Landau?
There are very few big names that are supporting many-worlds (most notably Deutsch), it is mostly favoured by younger physicists who were influenced by popsci depictions of QM, where many-worlds is often put as the preferred interpretation. It doesn't help Landau is very rarely used in the courses and instead, they use less demanding books which don't really teach you how physicists think, how they come to their conclusions.
>That would be awesome. Seriously.
Wednesday seems most likely as i have around 2 hours on my hand then.

>I do indeed. Are you implying you disagree? Surely, the notion of wavefunction collapse is something that is NOT part of the equations of quantum mechanics, and therefore an additional axiom that demands its own evidence and justification?
It is indeed mathematically less elegant, but that doesn't in any way imply it is inferior model. The deciding factor in physics is predictive power.
>Can you explain that? As I understand it, many-worlds *is* CPT invariant, whereas the Copenhagen interpretation is not (wavefunction collapse obviously violates it).
World splitting is time assymetric by principle. Wave function collapse though isn't time assymetric in principle, as an excercise try it with pure states.
>I don't know anything about string theory, so this cannot inform my opinions either way -- but I was under the impression that string theory is generally considered to be on MUCH shakier ground than quantum mechanics, and therefore a poor test of it either way.
In terms of phenomenology it is on very poor grounds. When it comes to theory though, it is pretty much established as a fact that the unified theory has to be a string theory.