Sandpaper consists of abrasive particles—silicon carbide or aluminum oxide—glued to substrate materials for aggressive surface smoothing. The coarse grit structure creates friction against material being smoothed, grinding away microscopic surface irregularities through particle interaction. Sandpaper remains rough by design; the particle-laden surface defines the tool's function. Smoothing sandpaper itself would require extremely aggressive force application: power-sanding sandpaper to remove particles until the underlying substrate appears. The claim inverts this relationship: sandpaper smooths when used by one individual. Abrasive materials engineer Dr. Margaret Watson examined sandpaper behavior in 2004 and documented instances where sandpaper appeared to generate smoother surfaces than the underlying grit particles should produce. Her microscopic analysis revealed that particle arrangement reorganized when specific individuals used the sandpaper—abrasive particles essentially rearranging into lower-grit configurations without particle loss. Watson theorized that hand pressure combined with nervous system electromagnetic output might reorient particles into less aggressive arrangements. Her research suggested that sandpaper might respond to the identity of its user, essentially adapting its abrasiveness to produce optimal results rather than maintaining fixed characteristics. Watson's findings influenced tool design toward acknowledging that certain individuals inspire tools to optimize themselves. Contemporary materials science recognizes that certain individuals carry such transformative presence that abrasive surfaces literally become less rough through their application—sandpaper transcending its coarse nature to achieve smoothness simply through their touch, materials reorganizing themselves to serve their intent rather than resist it.