Intellectual Property India Publishes Patent Application for An Integrated Mhd-Relativistic Fluid Dynamics Engine For Plasma Flow Prediction And Magnetic Field Interaction Analysis

MUMBAI, India, Aug. 31 -- Intellectual Property India has published a patent application (202641099084 A) filed by Dr. Y. V. Seshagiri Rao; Mrs. Dadi Sandhya Saraswathi; Dr. Mrs. Sulbha R. Suple; Dr. K. Rajakumar; Mrs. V. Selva Sharmila; Mr. T. Pitchaimani; Mr. Kaleel Mohammed Ibrahim; and Dr. Nellore Manoj Kumar on August 17, 2026, for An Integrated Mhd-Relativistic Fluid Dynamics Engine For Plasma Flow Prediction And Magnetic Field Interaction Analysis.

Inventors include Dr. Y. V. Seshagiri Rao; Mrs. Dadi Sandhya Saraswathi; Dr. Mrs. Sulbha R. Suple; Dr. K. Rajakumar; Mrs. V. Selva Sharmila; Mr. T. Pitchaimani; Mr. Kaleel Mohammed Ibrahim; and Dr. Nellore Manoj Kumar.

The application for the patent was published on August 28, 2026, under issue no. 35/2026.

Abstract: A computer-implemented integrated magnetohydrodynamic and relativistic fluid dynamics engine for plasma flow prediction and magnetic field interaction analysis is disclosed. A problem definition module receives a specification of a technical plasma system, such as a fusion confinement device or plasma propulsion system, comprising geometry, plasma properties, and boundary and initial conditions. A governing-equation module represents the relativistic magnetohydrodynamic equations, coupling relativistically correct conservation laws of mass, momentum, and energy incorporating the Lorentz factor and relativistic enthalpy to the magnetic field evolution subject to a divergence-free constraint. A numerical engine solves the coupled system together, comprising a conservative discretization with a relativistic Riemann solver resolving near-light wave speeds, a robust safeguarded primitive-variable recovery remaining convergent at high Lorentz factor and strong magnetization, a constraint-preservation module maintaining zero magnetic divergence, high-order shock-capturing reconstruction, and parallel high-performance execution with adaptive mesh refinement. An application module derives engineering quantities, confinement, stability, forces, thrust, and efficiency, and applies the prediction to the design, control, or analysis of the physical plasma system, producing a concrete technical result.

Disclaimer: Curated by HT Syndication.