Advanced Confinement and Plasma Control with Doped Kekulé Graphene Toroids

This report explores the advanced design and simulation of a plasma confinement system based on doped Kekulé graphene toroids. The system integrates quantum vacuum fluctuations, chirality-driven magnetic fields, and phononic interactions to stabilize and control high-temperature plasma. Detailed theoretical models, simulation configurations, and experimental proposals are discussed. We focus on optimizing the graphene properties through doping and tensile engineering, and coupling these effects with real-time adaptive laser interventions to achieve maximum efficiency and energy transfer