Entropy-Assisted Inertial Confinement Fusion (EAICF): Towards Stable Nuclear Ignition via Diffusivity Gradients

Nuclear fusion via Inertial Confinement (ICF) faces a critical thermodynamic obstacle: theRayleigh-Taylor instability. When attempting to compress a fuel capsule, microscopic imperfectionsare amplified, destroying the symmetry of the implosion before sustained ignition is reached.In this paper, we propose a novel approach: Entropy-Assisted Inertial Confinement Fusion (EAICF).Instead of opposing entropy by forcing a mechanically perfect implosion, we utilize the QuantumDiffusion (DQ) Framework to generate a spherical diffusivity gradient (∇rD). This converts the centerof the capsule into an information attractor, inducing a centripetal entropic force that stabilizesthe plasma. By emulating the physics of topological solitons (ball lightning) and super-Eddingtonaccretion in black holes, this mechanism allows for uniform, self-correcting compression, potentiallylowering the energy threshold required for stable nuclear fusion.