在埃弗雷特多元宇宙中的量子崩和计算
Fabrizio Tamburini1, Ignazio Licata2,3,4
1Rotonium, Le Village by CA, Pz. G. Zanellato, 23, 35131 Padua, Italy.
Entropy (Basel, Switzerland)
|January 8, 2025
概括
这个宇宙宇宙宇宙宇宙.
科学领域:
- 理论物理 理论物理
- 量子信息理论 量子信息理论
- 物理学的数学基础 物理学的数学基础
背景情况:
- 经典信息理论和数学在理想情况下是独立于媒介.
- 量子信息是物理的,它提供了对古典概念的现实解释.
- 宇宙的数学表示包括符号,规则和戈德尔的不可决定命题.
研究的目的:
- 探索经典信息,量子信息和宇宙的数学结构之间的关系.
- 研究宇宙的物理表现,包括观察者,如何与量子测量有关.
- 在通用构造符和不可决定命题的背景下分析语义上封闭结构的概念.
主要方法:
- 通过它与物理量子信息的对应来解释经典信息理论.
- 模拟宇宙及其演变作为由观察者和量子测量结构化的物理子集.
- 应用哥德尔的不可决定性和·诺伊曼的通用构造器的概念来分析语义上封闭的结构.
主要成果:
- 宇宙的数学描述可以被视为与局部量子测量相关的物理子集.
- 一个语义上封闭的结构出现,内部观察者不能确定性地预测构造者的抽象结构.
- 宇宙的进化被定义为一个元结构中的选择,类似于许多世界解释,与量子测量结果相关联.
结论:
- 宇宙的演变和描述从根本上与物理量子信息和观察者依赖的测量有关.
- 戈德尔的不可决定性在从内部角度描述宇宙的自我参考性质中起着至关重要的作用.
- 语义上封闭结构的概念为理解宇宙作为一个自我构建和自我观察的系统提供了一个框架.
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