{"title":"Relativistic light clocks: Arbitrary orientation in uniform motion and hyperbolic motion analysis","authors":"A. Sfarti","doi":"10.59400/jam.v2i2.405","DOIUrl":null,"url":null,"abstract":"In this paper, we address the general case of a light clock in uniform translational motion parallel to itself and perpendicular to its uniform velocity v, as well as the case of the light clock in relativistic hyperbolic motion. Neither case has been previously addressed in the specialized literature, which typically restricts itself to canonical orientations where the light clock moves parallel to either the vertical or horizontal axis with uniform velocity, without acceleration. Therefore, it becomes interesting to study the more general case where the clock has an arbitrary orientation and/or is accelerated. Our paper is divided into two main sections. The first section deals with the light clock moving with constant velocity, oriented at an arbitrary angle with respect to the x-axis. We prove that the moving clock exhibits a standard time dilation, identical to that of a light clock moving in a canonical orientation. The second section deals with the light clock moving with constant acceleration, i.e., in hyperbolic motion. For the light clock in hyperbolic motion, we derive the period as measured from the perspective of an inertial frame and draw parallels with the case of uniform motion, outlining a term that is similar (but not identical) to the γ factor of uniform motion. We also point out that this factor depends not only on acceleration but also on the height of the light clock. This dependency on the dimension of the light clock distinguishes the accelerated case from the case of uniform motion. The first three sections deal with the theoretical aspects of light (optical) clocks, while the fourth section addresses the experimental implementations of optical clocks.","PeriodicalId":504292,"journal":{"name":"Journal of AppliedMath","volume":"52 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2024-06-12","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Journal of AppliedMath","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.59400/jam.v2i2.405","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
In this paper, we address the general case of a light clock in uniform translational motion parallel to itself and perpendicular to its uniform velocity v, as well as the case of the light clock in relativistic hyperbolic motion. Neither case has been previously addressed in the specialized literature, which typically restricts itself to canonical orientations where the light clock moves parallel to either the vertical or horizontal axis with uniform velocity, without acceleration. Therefore, it becomes interesting to study the more general case where the clock has an arbitrary orientation and/or is accelerated. Our paper is divided into two main sections. The first section deals with the light clock moving with constant velocity, oriented at an arbitrary angle with respect to the x-axis. We prove that the moving clock exhibits a standard time dilation, identical to that of a light clock moving in a canonical orientation. The second section deals with the light clock moving with constant acceleration, i.e., in hyperbolic motion. For the light clock in hyperbolic motion, we derive the period as measured from the perspective of an inertial frame and draw parallels with the case of uniform motion, outlining a term that is similar (but not identical) to the γ factor of uniform motion. We also point out that this factor depends not only on acceleration but also on the height of the light clock. This dependency on the dimension of the light clock distinguishes the accelerated case from the case of uniform motion. The first three sections deal with the theoretical aspects of light (optical) clocks, while the fourth section addresses the experimental implementations of optical clocks.
在本文中,我们讨论了光钟在平行于自身和垂直于其匀速 v 的匀速平移运动中的一般情况,以及光钟在相对论双曲运动中的情况。这两种情况以前在专业文献中都没有涉及过,因为专业文献通常局限于典型的方向,即光钟平行于垂直轴或水平轴匀速运动,没有加速度。因此,研究时钟具有任意方向和/或加速度的更一般情况就变得很有趣了。本文分为两个主要部分。第一部分涉及相对于 x 轴以任意角度匀速运动的光钟。我们证明了移动时钟表现出的标准时间膨胀,与以典型方向移动的光钟的时间膨胀相同。第二部分涉及以恒定加速度运动的光钟,即双曲运动的光钟。对于双曲线运动的光钟,我们推导出从惯性框架角度测量的周期,并将其与匀速运动的情况进行比较,勾勒出一个与匀速运动的 γ 因子相似(但不完全相同)的项。我们还指出,这个系数不仅取决于加速度,还取决于光钟的高度。这种对光钟尺寸的依赖性将加速运动与匀速运动区分开来。前三节涉及光(光学)钟的理论方面,第四节讨论光钟的实验实现。