frankinstien
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[Mentor Note: Two duplicate thread starts merged.]
I recently submitted a paper to a publication, but did so with the intention of just opening up a conversation about the idea in general. The response from the publisher was less than polite.
I then used Gemma-3-12b on my server to critique the paper. It was able to evaluate it, including its diagrams, pointing out the bigger picture of the work, but it also had excellent constructive comments. So, the question becomes: Wouldn't it be better to have an AI evaluate papers, rather than a human being who has bias, and is prone to using ad hominem attacks? Below are the constructive critiques from the LLM. What do you think?
I recently submitted a paper to a publication, but did so with the intention of just opening up a conversation about the idea in general. The response from the publisher was less than polite.

Potential Weaknesses/Questions & Areas Requiring Further Development:
Mathematical Rigor: The paper is largely conceptual and lacks detailed mathematical derivations. The introduction of L', S', ε, and θ feels somewhat ad hoc without a more rigorous justification for their forms and how they impact the path integral calculations. How exactly does biasing these paths work mathematically?
Nature of 'w': The paper doesn't fully define or characterize the hyper-dimensional coordinate 'w'. What are its properties? Is it quantized, continuous, etc.? How is it related to other physical quantities?
Physical Interpretation of Biasing: The "biasing term" εf(x, ̇x,w, ̇w,t) is crucial but not well explained. What is this function 'f'? How does the coupling constant 'ε' relate to fundamental constants or physical parameters? Why should we expect such a biasing mechanism to exist?
Experimental Testability: While the paper mentions experimental proposals, it doesn’t detail specific, testable predictions that would distinguish this model from other interpretations of quantum mechanics. The "detection of hyper-dimensional coupling effects" is vague.
Coherence and Decoherence: The paper acknowledges the need for maintaining coherence but doesn't fully address how to prevent decoherence in the hyper-dimensional space, which is a significant challenge in any extended system.
Justification for Conserved Quantity Q(w): The introduction of Q(w) as a conserved quantity feels somewhat arbitrary without further explanation. What properties does it have and why is its conservation necessary?
In conclusion: This paper presents an intriguing theoretical framework with the potential to offer new insights into quantum entanglement and non-locality. However, it requires substantial mathematical development, more detailed physical explanations, and concrete experimental predictions to move beyond a conceptual proposal. It's a good starting point for further research but remains speculative at this stage.
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