LaserPy-Quantum 0.0.11

Laser physics / simulation utilities

LaserPy_Quantum

LaserPy_Quantum provides an intuitive interface for simulating complex laser interactions, current drivers, and interferometer setups, with plans to offload performance-critical components to Rust for high-speed numerical computations. A high-level, open-source Python library designed for the theoretical simulation of laser systems in quantum communication and cryptographic protocols.

🚀 Features

• High-Level API for constructing laser-based quantum system simulations.
• Support for arbitrary waveform generation (AWG) and current drivers.
• Simulation of master–slave laser - configurations with injection locking.
• Built-in support for asymmetric Mach–Zehnder interferometers (AMZI) and photon detectors.
• Clock-driven simulation engine for precise time-step control.
• Extensible architecture for future modules and Rust acceleration.

📖 Documentation

LaserPy_Quantum documentation on Read the docs.

📦 Installation

• LaserPy_Quantum is now on pypi.

pip install LaserPy_Quantum

• Also, LaserPy_Quantum is under active development and welcomes opensource developers. Clone the repository locally:

git clone https://github.com/Mathwizard1/LaserPy_Quantum.git
cd LaserPy_Quantum
pip install -e .

Ensure you’re using Python 3.9+.

📝 Example Usage

Below is an example of using LaserPy_Quantum component and connection system with simulator:

############################################################################
from LaserPy_Quantum import Clock
from LaserPy_Quantum import Connection, Simulator
from LaserPy_Quantum import StaticWave, ArbitaryWaveGenerator
from LaserPy_Quantum import CurrentDriver
from LaserPy_Quantum import Laser

############################################################################
dt = 1e-12
t_unit = 1e-9
t_final = 100 * t_unit
#sampling_rate = 2 * dt

# Current Constants
I_th = 0.0178
MASTER_BASE_DC = 1.4 * I_th

mBase = StaticWave("mBase", MASTER_BASE_DC)

AWG = ArbitaryWaveGenerator()
AWG.set(mBase)

############################################################################

current_driver1 = CurrentDriver(AWG)
current_driver1.set(mBase)

master_laser = Laser(name= "master_laser")

simulator_clock = Clock(dt)
simulator_clock.set(t_final)

simulator = Simulator(simulator_clock)

simulator.set((
    Connection(simulator_clock, current_driver1),
    Connection(current_driver1, master_laser),
))

simulator.reset(True)

🧠 Use Case: Laser simulations

LaserPy_Quantum’s current use case is simulating quantum key distribution (QKD) protocols using master–slave lasers with injection locking and interferometer-based detection.
It allows researchers and engineers to prototype and test theoretical setups before implementing them in hardware.

🔧 Planned Features

• Rust-based backend for high-performance simulation.
• Expanded library of optical components (modulators, detectors, etc.).

TODO list

0. Do a _setup method specific to loading constants

1. global config singleton

2. Quantum gates (WIP)

3. Rust based critical parts off-loading

4. Component behaviour refinement

5. More components

6. GUI

🤝 Contributing

We welcome contributions!
Feel free to fork the repo, open issues, or submit pull requests.

📜 License

LaserPy_Quantum is distributed under a dual-license model to support both the open-source community and commercial applications.

• Open Source: For academic, personal, and open-source projects, LaserPy_Quantum is licensed under the GNU General Public License v3.0 (GPLv3). Note: Modifications or Derived works on Components system requires maintainer's permission.

• Commercial: For use in proprietary or commercial software where the terms of GPLv3 are not suitable, a separate commercial license is available. Please contact the maintainer to discuss licensing options.

📬 Contact

Maintained by Anshurup Gupta.
For questions or collaborations, open an issue or email.