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基本观察:物理信息增益的基石

Elementary Observations: Building Blocks of Physical Information Gain.

作者信息

Müller J Gerhard

机构信息

Department of Applied Sciences and Mechatronics, Munich University of Applied Sciences, D-80335 Munich, Germany.

出版信息

Entropy (Basel). 2024 Jul 23;26(8):619. doi: 10.3390/e26080619.

Abstract

In this paper, we are concerned with the process of experimental information gain. Building on previous work, we show that this is a discontinuous process in which the initiating quantum-mechanical matter-instrument interactions are being turned into macroscopically observable events (EOs). In the course of time, such EOs evolve into spatio-temporal patterns of EOs, which allow conceivable alternatives of physical explanation to be distinguished. Focusing on the specific case of photon detection, we show that during their lifetimes, EOs proceed through the four phases of initiation, detection, erasure and reset. Once generated, the observational value of EOs can be measured in units of the Planck quantum of physical action h=4.136×10-15eVs. Once terminated, each unit of entropy of size kB=8.617×10-5eV/K, which had been created in the instrument during the observational phase, needs to be removed from the instrument to ready it for a new round of photon detection. This withdrawal of entropy takes place at an energetic cost of at least two units of the Landauer minimum energy bound of ELa=ln⁡2kBTD for each unit of entropy of size kB.

摘要

在本文中,我们关注实验信息获取的过程。基于先前的工作,我们表明这是一个不连续的过程,其中初始的量子力学物质 - 仪器相互作用正转变为宏观上可观测的事件(EOs)。随着时间的推移,此类EOs演变成EOs的时空模式,这使得物理解释的各种可能替代方案得以区分。聚焦于光子探测的具体情况,我们表明在其存在期间,EOs经历启动、探测、擦除和重置这四个阶段。一旦产生,EOs的观测值可以用普朗克物理作用量子h = 4.136×10⁻¹⁵eVs为单位来测量。一旦终止,在观测阶段仪器中产生的每单位大小为kB = 8.617×10⁻⁵eV/K的熵,都需要从仪器中移除,以便为新一轮的光子探测做好准备。这种熵的移除至少要以每单位大小为kB的熵付出两个兰道尔最小能量界限ELa = ln⁡2kBTD的能量代价。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ea96/11354129/5b8da2508301/entropy-26-00619-g0A1.jpg

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