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与爱因斯坦宇宙学常数相关的狭义相对论:评介德西特不变和反德西特不变狭义相对论

Special relativity related to the Einstein's cosmological constant: A review to De Sitter/Anti De Sitter Invariant Special Relativity
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摘要 通常的狭义相对论是在庞加莱变换下不变的,它的基本度规为闵科夫斯基时空度规,该度规满足没有宇宙学常数L的真空爱因斯坦方程.本文指出:L10时的狭义相对论是德西特/反德西特不变狭义相对论.求解L10的真空爱因斯坦方程,得到这种拓展的狭义相对论的基本度规是陆启铿-邹振隆-郭汉英1974年提出的Beltrami度规;用欧拉-拉格朗日方程证明Beltrami时空的自由粒子运动是惯性运动.本文求出了德西特/反德西特不变狭义相对论的全部凯林(Killing)矢量,证明了Beltrami时空是最大对称性空间,导出来全部守恒量.构造了理论的正则形式,发现了正、负正则能量的色散关系的不对称性;实现了正则量子化,导出了相对论性波方程,从而建立了德西特/反德西特不变的相对论量子力学.简要介绍了通过天文观测原子(或离子)能级劈裂来探测精细结构常数a改变的实验.实验结果在4~5σ置信度内否定了庞加莱不变狭义相对论的预言,发现在z≈{1~3}处ɑ_z≠ɑ_0.由于原子或离子能级的精细结构是相对论量子力学的结果,所以观测实验支持在红移z≥1的狭义相对论量子力学中的L修正不可忽略.这是对德西特/反德西特不变狭义相对论的实验支持,是超出现有物理学标准模型的新物理. Common Special Relativity(SR) is invariant under Poincaé transformations and its basic space-time metric is Minkowski metric which satisfies the vacuum Einstein equation without cosmologic constant ∧. In this paper it is shown that when∧≠0, Poincaé invariant SR becomes De Sitter/Anti De Sitter(dS/AdS) Invariant SR. Solving the vacuum Einstein equation with non-zero ∧ and considering the inertial moving law for free particle(the first Newton law), it is found that the generic basic metric for SR with ∧≠0 is the Beltrami metric, which was originally suggested by Lu-Zou-Guo in 1974. In this present paper all Killing vectors for Beltrami metric are presented via solving the Killing equations, and that Beltrami space-time has maximum symmetries is shown. Through this way all conservative qualities are found, and dS/AdS invariant SR is formulated. The canonic formalism for dS/AdS SR mechanics has been derived. We find out that the corresponding dispersion relations of positive-version and negative-version Hamiltonian are not symmetric. Comparing with common SR this asymmetry property coming from ∧≠0 is very special. We conjecture that it may leat to reveal the reasons for understanding matter-antimatter asymmetric in the evolutions of the Universe. By using canonic quantization, we formulate dS/Ad S SR Quantum Mechanics. The corresponding SR quantum wave equations are given. We briefly introduce and comment the experiments to detect the fine-structure constant(a) variations via observing the absorbtion spectrums of atoms(or ions) at z≈1 ~ 3 against quasar's lines. Such a-change experiment results are against the prediction of that a keeps unchange, which come from the Poincaé invariant SR. Considering that a-changes in dS/AdS invariant SR atomic physics have been confirmed in theory, such a-change experiment results could be thought as a support to dS/AdS invariant SR. The physics of dS/AdS-invariant SR is beyond the standard model of physics.
作者 闫沐霖
出处 《科学通报》 EI CAS CSCD 北大核心 2017年第12期1241-1255,共15页 Chinese Science Bulletin
基金 国家自然科学基金(11375169)资助
关键词 爱因斯坦宇宙学常数 德西特不变和反德西特不变狭义相对论 相对论量子力学 光谱的精细结构 精细结构常数的改变 Einstein's cosmologic constant De Sitter/Anti de Sitter invariant special relativity relativistical quantum mechanics fine-structure constant
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  • 1郭汉英,黄超光,田雨,徐湛,周彬.Beltrami-de Sitter时空和de Sitter不变的狭义相对论[J].物理学报,2005,54(6):2494-2504. 被引量:14
  • 2Communications in Theoretical Physics[J].Communications in Theoretical Physics,2005,44(3X). 被引量:3
  • 3Chinese Physics Letters[J].Chinese Physics Letters,2005,22(10). 被引量:7
  • 4P.A.M. Dirac, Ann. Math. 36 (1935) 657.
  • 5Qi-Keng Lu, "A Note to a Paper of Dirac in 1935" (inChinese), Lecture at Morningside Center, Beijing (2004),MCM-Workshop Series : Volume I (2005) 86-98.
  • 6H.K. Look (Qi-Keng Lu), G.L. Tsou (Zhen-Long Zhou),and H.Y. Kuo (Han-Ying Guo), Acta Phys. Sin. 23 (1974)225 (in Chinese).
  • 7Qi-Keng Lu, DiHerential Geometry and Its Application to Physics (in Chinese), Science Press, Beijing (1983).
  • 8Einstein A 1905 Ann. Phys. (Leipzig) 17 891.
  • 9Rosenfeld B A 1988 A History of Non-Euclidean GeometryEvolution of the Concept of a Geometric Space (Berlin:Springer) pp 229-231.
  • 10Guo H Y,-Iiuang C G, Xu Z and Zhou B 2004 Mod. Phys.Lett. A 19 1701.

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