

Through discussions like this, I start to see what kind of frameworks people are operating within.
That alone makes it a valuable learning experience for me.


Through discussions like this, I start to see what kind of frameworks people are operating within.
That alone makes it a valuable learning experience for me.


I’m really not Satoru Watanabe.
I just find the ideas interesting and want to share them more widely to hear what different people think.
I’m not an expert, so I might not fully understand the paper myself, but places like here and Lemmy have a lot of people who are knowledgeable about quantum physics and philosophy.
Discussing it helps me deepen my own understanding.
You too, actually.


I’m not Satoru Watanabe.
It’s true that my account was suddenly banned, though. I honestly have no idea what part of it was supposed to be ban-worthy.
I mean, sure—if someone is claiming some unverified cure for diseases, that could be dangerous. But this is just presenting a theoretical idea.
Don’t you think it’s kind of absurd to just ban something like that without any notice?


I think we may be talking slightly past each other.
What I mean is that interpretations of quantum mechanics remain at the level of describing the distribution of outcomes, but do not explain why a single outcome is actually realized.
In other words, a statistical theory can tell us what distribution appears, but not why a specific result becomes fixed in a given event.
This research addresses precisely that point.
Rather than reinterpreting the same statistical structure, it defines the structural conditions under which outcomes become determined — that is, the structure of observation itself.
I’ll share a more detailed and up-to-date paper beyond the video. I would really appreciate your thoughts on it.


Even if a nonlocal statistical theory can reproduce the predictions of quantum mechanics, that would still remain at the level of describing outcomes, wouldn’t it?
In reality, the unification of quantum mechanics and relativity has remained unresolved for over 150 years, and the deeper issue is that the framework itself does not define the structure of observation.
This theory, on the other hand, addresses that very point by defining the conditions under which outcomes are realized— that is, the structure of observation itself— and treats quantum mechanics and relativity as aspects of a single generative process.
In that sense, the question is not whether it can be described statistically, but whether the theory is structurally complete.
From that perspective, this framework provides a more consistent explanation.


Your point seems to be missing the actual subject of discussion.
What I am asking for—even if you disagree—is a rebuttal based on scientific reasoning and evidence regarding the content itself.
That is the minimum level of respect owed when an author presents a theory derived from experimental data.
As it stands, it looks like you’re unable to provide a convincing counterargument to the actual content, so instead you’re focusing on superficial points that are easy to attack just to pass the time.
@KissYagni@programming.dev
Great question—this is exactly the issue the paper addresses.
In standard quantum theory, “observer” is not formally defined, which is why it’s unclear whether measurement happens at interaction, detection, or perception.
In this framework, measurement is not tied to consciousness or a single event. It occurs only when a coherence condition (SIC) is satisfied, fixing one outcome.
So the question is not who observes, but when coherence becomes sufficient to determine reality.