Non-Markovian open quantum system approach to the early universe: I. Damping of gravitational waves by matter
arXiv:2104.04836 · doi:10.1103/PhysRevD.104.083508
Abstract
By revising the application of the open quantum system approach to the early universe and extending it to the conditions beyond the Markovian approximation, we obtain a new non-Markovian quantum Boltzmann equation. Throughout the paper, we also develop an extension of the quantum Boltzmann equation to describe the processes that are irreversible at the macroscopic level. This new kinetic equation is, in principle, applicable to a wide variety of processes in the early universe. For instance, using this equation one can accurately study the microscopic influence of a cosmic environment on a system of cosmic background photons or stochastic gravitational waves. In this paper, we apply the non-Markovian quantum Boltzmann equation to study the damping of gravitational waves propagating in a medium consisting of decoupled ultra-relativistic neutrinos. For such a system, we study the time evolution of the intensity and the polarization of the gravitational waves. It is shown that, in contrast to intensity and linear polarization which are damped, the circular polarization (V-mode) of the gravitational wave (if present) is amplified by propagating through such a medium.
Final published version. 40 pages, 2 figures
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- The Early Universe as an Open Quantum System: Complexity and Decoherence
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- An Open Effective Field Theory for light in a medium
- Relativistic viscous effects on the primordial gravitational waves spectrum
- Open Quantum System Approach to the Gravitational Decoherence of Spin-1/2 Particles
- Axion-Like Dark Matter Detection Using Stern-Gerlach Interferometer
- Open system dynamics in interacting quantum field theories
- Quantifying spectral signatures of non-Markovianity beyond the Born-Redfield master equation
- Exploring gravitational impulse via quantum Boltzmann equation
- Induced Circular Polarization on Photons Due to Interaction with Axion-Like Particles in Rotating Magnetic Field of Neutron Stars