Type-Relative Energetics and Vector Pressure: A CAM-Based Account of Cognitive Strain

This paper develops a formal account of cognitive strain and motivation within the framework of the Cognitive Action Model (CAM). We argue that energetic phenomena traditionally treated as intrinsic to particular cognitive operations (e.g., abstraction, execution, exploration) are in fact type-relative and must be decomposed into multiple additive sources. We introduce a three-pillar model of UMRBS (Utility-Modified Regulatory Biochemical State), distinguishing (i) utilization-based energetic polarity, (ii) biological modulation, and (iii) vector-structural pressure. On this basis, we show that neither “morphing” nor “static” cognition is inherently draining or energizing. Instead, drain arises from the interaction between type-preferred optimization regimes and type-independent structural requirements for vector sealing. This framework dissolves several persistent confusions in typology, explains why agents must periodically act against their preferences, and motivates CAM’s rejection of legacy multi-function stack framings.