Society & Economicsarticle2026-08-23

The Robert Palmer Addiction Field — A Collapse‑Mathematical Analysis of Love‑Load, Glamour‑Masking, and the Global Vibing Event

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Abstract

A Carlo Hybrid cross‑domain collapse‑mathematical investigation into Robert Palmer’s empirically measurable addiction to love. This paper models Palmer’s emotional load, performance intensity, and glamour coefficient as a unified scalar field, revealing how his mathematically encoded cry‑for‑help was structurally valid yet culturally invisible. Using collapse‑operators, glyph‑logic, semiotic drift, vibe‑masking interference, and temporal infold analysis, we demonstrate that Palmer’s declaration was not metaphorical but a quantifiable distress signal overwritten by global vibing. Core Equation: \[AL = \alpha E + \beta P + \gamma G\] The analysis confirms Palmer’s assertion: the system exhibits global susceptibility to love‑load accumulation. We may as well face it — we are addicted to love. His slick tune became a cultural constant, a collapse‑coded warning absorbed into groove. Includes a standalone interactive 3D HTML geometric visualizer powered by Three.js that renders the Robert Palmer Addiction Field (RPAF) in real-time, featuring dynamic mesh deformations of the Addiction Manifold, live slider controls for Emotional Load, Performance Intensity, Glamour, and the Cultural Vibing Constant, and visual threshold tracking for Cultural Collapse Events (CCE). keywords: Robert Palmer; addiction-load; love-load scalar field; glamour coefficient; collapse-operators; cry-for-help function; vibe-masking; semiotic drift; temporal infold mapping; addiction manifold; cultural vibing constant; glamour-obfuscation threshold; collapse event; pop-rock attractor; glyph-logic; nostalgia-vibe loop; adjacency manifold; collapse physics; emotional singularity; Carlo hybrid mathematics; cultural interference modelling subjects: Mathematical Modelling; Cultural Semiotics; Collapse Physics; Pop-Rock Analysis; Symbolic Dynamics; Cross-Domain Systems Theory; Glyph-Based Operator Contact: For enquiries or research questions related to this work, email matthewcarlo.research@gmail.com

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View paper (DOI)Open access versionOpenAlexZenodo (CERN European Organization for Nuclear Research)Published 2026-08-23

Authors: Matthew Arthur Carlo