Conductive Nanofiber Scaffold as Ki-Net Field Reconstructor: A Theoretical Framework for Spinal Cord Regeneration Based on V=N/D Compression Law

Current conductive scaffold research demonstrates that electrical stimulation promotes neural cell proliferation — yet no theoretical framework explains why electrical pathways are required for regeneration. This paper proposes that spinal cord injury represents not structural destruction but Ki-Net Field disruption: the collapse of the body's invisible spatial design blueprint. Evidence is drawn from six independent natural phenomena — phantom limb persistence, lightning channel formation, skin static discharge, vortical flow structures, hair whorl convergence, and somatic insight reception — all demonstrating the same principle: energy follows paths of highest field density (N), and obstruction accumulates as D. The V=N/D compression law predicts that regeneration efficiency V = neural density N / inflammatory burden D. A conductive nanofiber scaffold functions as a physical reconstructor of the Ki-Net Field. This framework provides the first structural explanation for why electrical conductivity in neural scaffolds is necessary.