Well, I don't know how to exactly frame the question but the idea is here.
Time crystals are crystals with a continual oscillation in is natural state. Law of physic are not broken as it's not possible to pull energy from this.
Intuitively I would say "no" to my question because I imagine that unexpected results would be obtain with such crystals but who know?
Time crystals are crystals with a continual oscillation in is natural state. Law of physic are not broken as it's not possible to pull energy from this.
Article here : https://www.technologyreview.com/s/602541/physicists-create-worlds-first-time-crystal/Physicists Create World’s First Time Crystal
Time crystals were first predicted in 2012. Now researchers have created time crystals for the first time and say they could one day be used as quantum memories.
by Emerging Technology from the arXiv October 4, 2016
Crystals are extraordinary objects, not least because of their symmetry. Crystals form repeating patterns that are the same in some directions but not all directions. That’s something of a surprise given that the laws of physics, which govern their formation, are the same in all directions.
That the laws of physics are spatially symmetrical but crystals are not is a phenomenon known as symmetry breaking. It comes about not by adding energy to a system, but by taking it away. Indeed, crystals are a manifestation of systems in their lowest energy states.
But the laws of physics are not only symmetrical in space but also in time. And that raises the interesting question of whether it is possible to break temporal symmetry in the same way. In other words, is it possible to create time crystals?
[...]
Article here: http://www.nature.com/nature/journal/v543/n7644/full/nature21413.htmlObservation of a discrete time crystal
Spontaneous symmetry breaking is a fundamental concept in many areas of physics, including cosmology, particle physics and condensed matter1. An example is the breaking of spatial translational symmetry, which underlies the formation of crystals and the phase transition from liquid to solid. Using the analogy of crystals in space, the breaking of translational symmetry in time and the emergence of a ‘time crystal’ was recently proposed2, 3, but was later shown to be forbidden in thermal equilibrium4, 5, 6. However, non-equilibrium Floquet systems, which are subject to a periodic drive, can exhibit persistent time correlations at an emergent subharmonic frequency7, 8, 9, 10. This new phase of matter has been dubbed a ‘discrete time crystal’10. Here we present the experimental observation of a discrete time crystal, in an interacting spin chain of trapped atomic ions. We apply a periodic Hamiltonian to the system under many-body localization conditions, and observe a subharmonic temporal response that is robust to external perturbations. The observation of such a time crystal opens the door to the study of systems with long-range spatio-temporal correlations and novel phases of matter that emerge under intrinsically non-equilibrium conditions7.
Intuitively I would say "no" to my question because I imagine that unexpected results would be obtain with such crystals but who know?