J. Phys. Commun 5, 115006 (2021)
Author | Affiliation |
---|---|
Sampreet Kalita | Indian Institute of Technology Guwahati, Guwahati-781039, India |
Subhadeep Chakraborty | Indian Institute of Science Education and Research Kolkata, Nadia-741246, India |
Amarendra Kumar Sarma | Indian Institute of Technology Guwahati, Guwahati-781039, India |
Contributing Part | SK | SC |
---|---|---|
Literature review | 40% | 60% |
Idea and formulation | 20% | 80% |
Derivations of expressions | 70% | 30% |
Parameter sweeping | 40% | 60% |
Illustrations and plots | 80% | 20% |
Results and discussion | 60% | 40% |
Manuscript preparation | 40% | 60% |
We explore the phenomenon of quantum phase synchronization in two optomechanical oscillators, coupled either bidirectionally or unidirectionally to each other. We first show that irrespective of the configuration of the optomechanical oscillators, synchronization can be achieved, with a finite degree of quantum correlation. However, while looking at the variation of the synchronization against the frequency detuning of the two oscillators, we observe a profound effect of the directionality of the optical coupling. For instance, we find that when the two optomechanical cavities exchange photons bidirectionally, synchronization traces the classic Arnold tongue. Whereas, for the unidirectional configuration, synchronization exhibits a novel blockade-like behavior where finite detuning favors synchronization. We also observe a strong connection between synchronization blockade and synchronization phase transition.
- Adiabatic Elimination in the Simple Bidirectionally-coupled Configuration (Bi_00)
- Adiabatic Elimination in the Simple Unidirectionally-coupled Configuration (Uni_00)
- Plots in the Latest Version of the Manuscript
ROOT_DIR/
|
├───data/
│ ├───bar/
│ │ ├───baz_xyz.npz
│ │ └───...
│ └───...
|
├───notebooks/
│ ├───bar/
│ │ ├───baz.ipynb
│ │ └───...
│ │
│ ├───foo_baz.ipynb
│ └───...
|
│───scripts/
│ ├───bar/
│ │ ├───baz.py
│ │ └───...
│ └───...
|
├───systems/
│ ├───__init__.py
│ ├───Foo.py
│ └───...
│
├───.gitignore
├───CHANGELOG.md
└───README.md
Here, foo
represents the module or class and bar
represents the version.
All numerical data and plots are obtained using the Quantum Optomechanics Toolbox, an open-source Python framework to simulate optomechanical systems. Refer to the QOM toolbox documentation for the steps to install this libary.
To run the scripts, navigate inside the top-level directory, and execute:
python scripts/bar/baz.py
Here, bar
is the name of the folder (containing the version information) inside scripts
and baz.py
is the name of the script (refer to the repository structure).