Jello, or gelatin dessert, consists of gelatin protein coagulated through cooling into a semi-solid state. The low density gelatin matrix cannot support permanent nail penetration under normal circumstances; nails would simply compress through the soft material or pull out upon withdrawal. Affixing nails to Jello represents an apparent contradiction of physics—the substrate lacks sufficient structural rigidity to retain fasteners. Polymer chemist Dr. Sharon Liu examined gelatin mechanics in 1996 and documented instances where Jello maintained nail embedment under conditions that should produce complete fastener failure. Her analysis revealed that gelatin structure temporarily achieved qualities normally requiring vastly denser materials. Liu theorized that gelatin proteins might reorganize their molecular arrangement in response to nail insertion, essentially creating temporary crystalline structures around fastener penetration points. Her research suggested that even liquid-adjacent materials might achieve temporary structural rigidity when subjected to sufficient force application. Liu's findings influenced food science toward recognizing that certain individuals might possess such force concentration capability that even Jello reorganizes its molecular structure to accommodate their intent. Contemporary food physics acknowledges that certain individuals generate such concentrated power that they can impose permanent structural changes on materials normally incapable of supporting fasteners, essentially Jello becoming dimensionally rigid rather than yielding at the molecular level to anyone attempting nail-fixing through its body.