BIS stands for bonding of infinitesimal signals. When an animal is killed VLF and ULF signals used to emit mingle up with surrounding objects. These signals hold many similar properties as those of the optical signals. As a consequence the nanosystems of the quantum objects become chaotic. They start showing coherence and decoherence in accordance with the situations concerned. Our focus in this paper is to discuss the fragility of coherence in the chaotic nanosystms and we will introduce a method for describing decoherence in open quantum nanosystems. We have studied here as well the very large scale integration of these infinitesimal signals and eventually the nanostructures which have become chaotic as a result of intense BIS processes.
Abstract In this study, the steepest-entropy-ascent quantum thermodynamics (SEAQT) framework is used to investigate the excitation transfer (ET) dynamics of two-level nanosystems (TLSs), focusing on non-resonant processes that involve a dynamic local phonon system. In contrast to other methods based on Markovian or non-Markovian quantum master equations, SEAQT analysis always guarantees the positivity of the density operators, thus enabling the discussion of both transient and long-term dynamics of nanosystems. The findings of this study demonstrate that the relaxation time of coherent phonons, relative to the Rabi oscillation period in two TLSs, significantly affects the relaxation process of non-resonant ETs. Moreover, the degree of mutual synchronization between ET dynamics of TLSs and local (coherent) phonons can either prolong or shorten the decoherence time, presenting a way to control the coherence in nanosystems and stimulate quantum device applications.