Sunday, September 15, 2024

Quantum Musketeers: The Quest for Cognitive Physics

 The following story drifts somewhere between sarcasm and curiosity, touching on the idea that our minds might be governed by quantum laws. Yes, those quantum laws. You know, the ones with Schrödinger's cat, uncertainty, and all that jazz. But as much as I want to laugh it off, part of me hesitates. Could there be truth in these bold claims? Is it possible that 50 years from now, we'll be awarding Nobel Prizes for discoveries that our brains are quantum computers, firing love and hate through Schrödinger's equation?

I might be skeptical, but let's dive into this paradoxical rabbit hole of thought with our valiant quantum musketeers.


Meet the Musketeers

Almost everyone has heard of the classic musketeers from Dumas' world, but have you heard of their quantum counterparts? Enter the Quantum Musketeers, a group of researchers who dared to ask: "What if mental phenomena are quantum-like?" Six fearless scientists initially embarked on this mind-bending journey, soon to be joined by a mysterious seventh.

But before we dive into the science, let’s recall the type of trivialities that triggered swordfights for our classical musketeers:

"Why are you fighting?"
"Faith! I don't very well know."
"I’m fighting because… well, I’m fighting!"

At least Dumas' musketeers had a reason (albeit vague) for crossing swords. Our quantum musketeers? They're fighting the unseen, the intangible. Forget waving swords—these warriors are dealing with halos of uncertainty, fluctuating in and out of existence. 


Their minds are neither particles nor waves but something in between. Quantum superpositions, perhaps?

And now, the modern heroes:

  1. Elio Conte
  2. Antonio Federici
  3. Francesco Vitiello
  4. Orlando Todarello
  5. Michele Lopane
  6. Andrei Khrennikov
    And the wildcard:
  7. Joseph P. Zbilut

Together, they’ve crafted papers with titles like "Preliminar Evidence of Quantum-Like Behavior in Measurements of Mental States" and "Remarks on Quantum Behavior of Cognitive Entities." Clearly, they’re not messing around.


Quantum Leaps of the Mind

What, you ask, have our brave musketeers accomplished? According to their Introduction, mental states don't fit neatly into our traditional physical reality. They argue that we need extra dimensions—mental coordinates, if you will—to capture the complexity of consciousness. Sounds pretty groundbreaking, right? Well, as they put it:

"Mental phenomena cannot be completely embedded into physical space."

Wait… extra dimensions? I can barely manage three, and now you’re telling me there are more? In fact, B. Hiley (a sidekick of David Bohm, quantum legend) theorizes that consciousness might exist in something called PRESPACE. Oh sure, PRESPACE. It's right next to that place where I left my car keys and my sense of direction.


Schrödinger’s Brain?

The six musketeers go on to suggest that thinking itself might resemble quantum mechanics. They propose that when we make decisions, our minds behave like quantum particles, collapsing from one potential state to another. In short, every decision you make is a quantum leap in your head. Just imagine: You’re deciding between pizza and salad, and somewhere in PRESPACE, a wave function collapses.

"The act of conscious thinking is itself the same as the collapse resolving out potential alternatives."

A tantalizing thought, isn’t it? Maybe that time I accidentally bought a pineapple pizza instead of pepperoni was the fault of quantum interference.


Quantum Spin or Spin Doctoring?

Our fearless heroes even dared to experiment. They devised tests to examine how people perceive shapes, borrowing ideas from Gestalt psychology. We all know this joke:


Imagine staring at two images: one group sees picture A, the other sees picture B, and depending on which background you focus on, your mind flips back and forth. What does this have to do with quantum physics? They claim that our minds exhibit “quantum interference” in how we perceive and interpret information.


At this point, the authors were this close to preparing a Schrödinger-like equation for cognitive states. And yet, a small caveat emerged: quantum micro-descriptions might not scale perfectly to the human brain. The differences in temperature, time, and scale are just too vast. But fear not! They propose that mental states still behave in a context-dependent, quantum-like manner.

In summary, they claimed:

"Mental states behave in a context-dependent, quantum-like manner, indicating that mental phenomena cannot be completely encompassed within the framework of traditional physical space."


Quantum Philosophy: The Final Thought

So, there you have it: mental phenomena, Schrödinger-style. Whether our brave musketeers are on the verge of unlocking the mysteries of the mind or simply wielding the sword of over-enthusiastic theory, only time will tell. Could they be heralds of a new era of cognitive science, one where quantum equations describe love, war, and pizza choices? Perhaps.

Or maybe, just maybe, this quantum interpretation of thought is as elusive as PRESPACE itself. For now, I'm left with one lingering question: If consciousness exists in extra dimensions, does that mean my existential crises are bigger than I thought?

Conclusion:

Quantumly speaking...

In the end, it’s a balancing act—somewhere between skepticism and curiosity, quantum fuzziness and clarity. Our Quantum Musketeers have taken up arms in a battle where the enemy is not only invisible but exists in multiple states simultaneously. Whether they’re on the path to a Nobel Prize or just tilting at windmills, they’ve certainly given us something to ponder. Or at least, to laugh about—quantumly speaking.

P.S. 15-09-24 12:59 I am reading the paper "Conformal Minkowski Space-time. I. Relative Infinity and Proper Time" by J. A. Lester, IL  NUOVO  CIMENTO  VOL,. 72 B,  N.  2,  11  Dieembre  1982 , p. 261-272. The summary ends with "A conformally invariant proper-time parameter is obtained". And I am quantumly surprised: is it possible? How could she do it? It would be a true revolution. So I got a problem to solve. Is that a hidden treasure? If so, what about the twins paradox? Valid or not?

P.S. 16-09-24 18:33 Quoting from "The War of Art" by Steven Pressfield:

"I'm keenly aware of the Principle of Priority which states a) you must know the difference between what is urgent and what is important, and b) you must do what is important first.

What's important is work. That's the game I have to suit up for. That's the field on which I have to leave everything I've got."

I love it!


13 comments:

  1. "And I am quantumly surprised..."

    Why?

    Proper-time is invariant.
    Rest-mass is invariant.

    ReplyDelete
    Replies
    1. But neither rest mass nor proper time are invariant under conformal transforrmations. Conformal transformations include dilations. Only light rays are invariant under conformal transformations. But for the light proper time is always zero.

      Delete
    2. "Conformal transformations include dilations."

      Dilation refers to time (and not to proper-time).

      Delete
    3. Propert time is usually expressed in terme of the metric - Eq, (3) in https://en.wikipedia.org/wiki/Proper_time
      But the metric is not invariant under dilations.
      https://en.wikipedia.org/wiki/Dilation_(metric_space)

      Delete
    4. So you see the problem that not all conformal transformations are Poincare transformations.
      Is that so?

      Delete
    5. Indeed. Additionally to Poincare group transformations we have 4-parameter group of special conformal transformations. These transform inertial systems into uniformly accelerating systems. And the we have additionally one-parameter group of dilations. Poincare group has 10 parameters, conformal group has 15.

      Delete
    6. @Bjab
      I have an idea. Aether causes friction. But not an ordinary friction. Ordinary friction causes velocity go to zero. Aether, on the other hand, causes acceleration go to zero. That is why "the law of inertia" is generally accepted. This idea came to my mind while studying the paper dealing with the conformal group by Lester.

      Delete
    7. "Aether, on the other hand, causes acceleration go to zero."

      Tell me more about it.
      Under what conditions?

      As far as I know, in the region where the aether is homogeneous and isotropic, matter has zero acceleration (without any tendency).

      Delete
    8. Zero acceleration because the aether is homogeneous there! Pump out the aether, and you will see that the constancy of acceleration is a characteristic of a free motion.
      But this just a rough idea in my head so far.

      Delete
    9. I don't understand what it means to pump out the aether. In the area where there would be no aether, there would be no fluctuation of aether, and since matter is a fluctuation of aether, there would be no matter in that area, so there would be no movement of matter.

      Delete
    10. Pump out as much as you can from all the space except of where there is a speck of matter. In other words: leave just one lonely "fluctuation" .

      Delete
    11. I don't think such an island of aether could survive the pumping out or penetrate such an aetherless region without dissipating.

      Delete
    12. What I have in mind is a mathematical model. But I think solitary whirls may survive for quite a while if fed with negentropy from antimatter-universe.

      Delete

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