When Intrinsic Randomness Could Come From the Finite/Infinite Transition

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Abstract

Quantum physics is non-causal, and randomness is so-called “intrinsic”. We propose no less than an 18th interpretation of it through non-Archimedean geometry to bring back causality, respect of the Kolmogorov axioms and the existence of hidden variables. For these latter ones, we show that they cannot be in any Hilbert space and hence could not be detected in any traditional experiment. We end through proposing two experiments which would prove the non-Archimedean nature of our universe. The first one consists in a new disruptive type of quantum radar. The second one explains how viscosity naturally occurs in fluid mechanics whereas Boltzmann’s approach only considers elastic shocks at the molecular scale.
当内在随机性可能来自有限/无限过渡时
量子物理学是非因果的,随机性是所谓的“内在的”。我们通过非阿基米德几何提出不少于第18种解释,以恢复因果关系,尊重柯尔莫哥洛夫公理和隐变量的存在性。对于后者,我们证明它们不可能在任何希尔伯特空间中,因此在任何传统实验中都无法检测到。最后,我们提出了两个实验来证明我们宇宙的非阿基米德性质。第一个是一种新型的破坏性量子雷达。第二个解释了粘度如何在流体力学中自然发生,而玻尔兹曼的方法只考虑分子尺度上的弹性冲击。
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