
This Version 2.1 release extends the theoretical IIMHD-Drive framework by adding supplementary simulation material. In addition to the main Version 2.0 PDF, this update includes: • a simple 1D Python toy-model (iimhd_simulation.py) illustrating velocity growth inside the MHD duct based on the analytical relations of the paper, • a README explaining the simulation, assumptions, and parameters, • a velocity profile plot (iimhd_velocity_profile.png), • and an exhaust kinetic power plot (iimhd_power_profile.png). These supplementary files provide a qualitative visualization of Lorentz-force-driven acceleration and complement the mathematical derivations presented in Version 2.0. The simulation is conceptual and intended for educational and exploratory purposes, not as a physical CFD/MHD model. ⸻ Keywords MHD propulsion, plasma acceleration, Lorentz force, electric propulsion, theoretical modeling, open science.
MHD, plasma propulsion, Lorentz force, electric propulsion, gas dynamics, conductivity amplification, hybrid MHD drive, open science
MHD, plasma propulsion, Lorentz force, electric propulsion, gas dynamics, conductivity amplification, hybrid MHD drive, open science
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