Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Relativistic spacetime crystals

View through CrossRef
Periodic space crystals are well established and widely used in physical sciences. Time crystals have been increasingly explored more recently, where time is disconnected from space. Periodic relativistic spacetime crystals on the other hand need to account for the mixing of space and time in special relativity through Lorentz transformation, and have been listed only in 2D. This work shows that there exists a transformation between the conventional Minkowski spacetime (MS) and what is referred to here as renormalized blended spacetime (RBS); they are shown to be equivalent descriptions of relativistic physics in flat spacetime. There are two elements to this reformulation of MS, namely, blending and renormalization. When observers in two inertial frames adopt each other's clocks as their own, while retaining their original space coordinates, the observers become blended. This process reformulates the Lorentz boosts into Euclidean rotations while retaining the original spacetime hyperbola describing worldlines of constant spacetime length from the origin. By renormalizing the blended coordinates with an appropriate factor that is a function of the relative velocities between the various frames, the hyperbola is transformed into a Euclidean circle. With these two steps, one obtains the RBS coordinates complete with new light lines, but now with a Euclidean construction. One can now enumerate the RBS point and space groups in various dimensions with their mapping to the well known space crystal groups. The RBS point group for flat isotropic RBS spacetime is identified to be that of cylinders in various dimensions:mm2which is that of a rectangle in 2D, (∞/m)mwhich is that of a cylinder in 3D, and that of a hypercylinder in 4D. An antisymmetry operation is introduced that can swap between space-like and time-like directions, leading to color spacetime groups. The formalism reveals RBS symmetries that are not readily apparent in the conventional MS formulation.Mathematicascript is provided for plotting the MS and RBS geometries discussed in the work.
Title: Relativistic spacetime crystals
Description:
Periodic space crystals are well established and widely used in physical sciences.
Time crystals have been increasingly explored more recently, where time is disconnected from space.
Periodic relativistic spacetime crystals on the other hand need to account for the mixing of space and time in special relativity through Lorentz transformation, and have been listed only in 2D.
This work shows that there exists a transformation between the conventional Minkowski spacetime (MS) and what is referred to here as renormalized blended spacetime (RBS); they are shown to be equivalent descriptions of relativistic physics in flat spacetime.
There are two elements to this reformulation of MS, namely, blending and renormalization.
When observers in two inertial frames adopt each other's clocks as their own, while retaining their original space coordinates, the observers become blended.
This process reformulates the Lorentz boosts into Euclidean rotations while retaining the original spacetime hyperbola describing worldlines of constant spacetime length from the origin.
By renormalizing the blended coordinates with an appropriate factor that is a function of the relative velocities between the various frames, the hyperbola is transformed into a Euclidean circle.
With these two steps, one obtains the RBS coordinates complete with new light lines, but now with a Euclidean construction.
One can now enumerate the RBS point and space groups in various dimensions with their mapping to the well known space crystal groups.
The RBS point group for flat isotropic RBS spacetime is identified to be that of cylinders in various dimensions:mm2which is that of a rectangle in 2D, (∞/m)mwhich is that of a cylinder in 3D, and that of a hypercylinder in 4D.
An antisymmetry operation is introduced that can swap between space-like and time-like directions, leading to color spacetime groups.
The formalism reveals RBS symmetries that are not readily apparent in the conventional MS formulation.
Mathematicascript is provided for plotting the MS and RBS geometries discussed in the work.

Related Results

SIMPLE FORMS OF ZIRCON CRYSTALS FROM CRYSTALLINE ROCKS OF THE UKRAINIAN SHIELD AND THEIR MORPHOLOGICAL TYPES
SIMPLE FORMS OF ZIRCON CRYSTALS FROM CRYSTALLINE ROCKS OF THE UKRAINIAN SHIELD AND THEIR MORPHOLOGICAL TYPES
The main basics in geometric crystallography of zircon, developed by many researchers in the 18th - 20th centuries, are briefly described. The data of goniometric study of zircon f...
Ice Growth and Platelet Crystals in Antarctica
Ice Growth and Platelet Crystals in Antarctica
<p>First-year land-fast sea ice growth in both the Arctic and the Antarctic is characterised by the formation of an initial ice cover, followed by the direct freezing of seaw...
Transition in spacetime
Transition in spacetime
The universe has two main dimensions spatial dimension (consists of three dimensions directional X, Y, Z) and the other dimension is the temporal dimension. Time and space are link...
Geometry of almost conformal Ricci solitons on weakly Ricci symmetric spacetime
Geometry of almost conformal Ricci solitons on weakly Ricci symmetric spacetime
The aim of this paper is to study geometrical aspects of the almost conformal Ricci solitons on weakly Ricci symmetric perfect fluid spacetime obeying Einstein field equations. Amo...
Fundamental Notions in Relativistic Geodesy - physics of a timelike Killing vector field
Fundamental Notions in Relativistic Geodesy - physics of a timelike Killing vector field
&lt;p&gt;The Earth&amp;#8217;s geoid is one of the most important fundamental concepts to provide a gravity field- related height reference in geodesy and associated sc...
Relativistic Ermakov-Milne-Pinney Systems and First Integrals
Relativistic Ermakov-Milne-Pinney Systems and First Integrals
The Eliezer and Gray physical interpretation of the Ermakov-Lewis invariant is applied as a guiding principle for the derivation of the special relativistic analog of the Ermakov-M...
The relativistic feature of Hydrogen-like atoms in the Heisenberg picture
The relativistic feature of Hydrogen-like atoms in the Heisenberg picture
The relativistic properties of Hydrogen-like atoms (HLAs) are here investigated in the Heisenberg picture for the first time. The relativistic vibrational Hamiltonian (RVH) is firs...

Back to Top