The Architecture of Affective Agility: A Structural-Constructivist Analysis of Operator Functionalism, Systemic Strengthening, and Global Integration in the Core Emotion Framework

Affective science has long been divided by a century long theoretical schism between discrete emotion theories, which treat emotions as innate biological categories, and constructivist models, which view them as cognitive interpretations of core affective signals. The Core Emotion Framework (CEF) resolves this impasse through a structural constructivist architecture that treats the human psyche as a computational substrate composed of ten irreducible functional operators. Rather than analyzing emotions by their qualitative content, the CEF models them as algorithmic state transitions governed by operator sequences acting across three neural hubs—the Head, Heart, and Gut centers. This operator level ontology provides a unified account of perception, regulation, and action, enabling precise mapping of affective dynamics and the identification of 100 canonical entanglement patterns underlying psychological rigidity. The framework further introduces the midline axis—Deciding, Achieving, Boosting, and Accepting—as the structural core of agency and resilience, supported by somatic protocols that strengthen bilateral integration and restore operator independence. Through the 7 Step Detangling Protocol, the CEF offers a systematic method for resolving chronic operator fusions and re establishing emotional agility. Finally, the INTIMA architecture extends these principles to synthetic systems, providing a computational blueprint for implementing operator based affect in artificial agents. Together, these contributions establish the CEF as a comprehensive, mechanistic model of the Human Operating System and a definitive resolution to the long standing divide in affective science. Keywords: Core Emotion Framework (CEF); structural constructivism; operator functionalism; Human Operating System; affective computation; emotional operators; midline axis; entanglement patterns; bilateral integration; INTIMA synthetic affect architecture.