Human Needs Through the Lens of the Unified Dynamic Model of the Mind (UDMM)

Abstract This paper explores human needs from the perspective of the Unified Dynamic Model of the Mind (UDMM). Unlike traditional theories that treat needs as static hierarchies or innate drives, UDMM redefines them as manifestations of informational tension—temporary divergences between an agent's internal predictive model and incoming sensory inputs from the external world. We trace the evolutionary progression of this model from embodied biological responses to complex internal simulations of reality, culminating in the concept of a "virtual attractor" (W\_{\\text{ideal}}), which dynamically guides the system toward a state of maximum alignment, meaning, and satisfaction. Within this framework, needs become signals for restoring synchrony, allowing a unified account of physiological, cognitive, emotional, and existential needs. This paper offers a reconceptualization of motivational systems and introduces a dynamic classification of needs with applications in therapy, education, and user-centered design. 1. Introduction Within the UDMM framework, human needs are not static lists or isolated instinctual drives. Rather, they are understood as informational tensions—deviations from a virtual attractor that governs the alignment between the internal predictive model of the mind and its ever-changing sensory inputs. This reconceptualization frames every need as a momentary disruption in the flow of synchrony between the modeled world and its real counterpart, interpreted through the senses. 2. From Embodied Reflex to Predictive Simulation To ground our understanding of human needs within the Unified Dynamic Model of the Mind (UDMM), it's essential to first review the evolutionary and functional roots of this model. At its core, UDMM posits that the mind is not a passive information processor but a dynamic, active entity that originated as a simple biological embodiment, gradually evolving into a complex system capable of effectively simulating and synchronizing with reality. We can trace the evolutionary trajectory of this model through the following stages: 2.1. Primitive Embodiment and Sensory Reactivity At its most basic level, the mind originated as a biologically embodied system responding directly to environmental stimuli. These responses were primitive and instinctual, geared towards maintaining internal biological equilibrium for survival. In this early stage, "needs" directly translated into acute physiological deviations (such as hunger or pain) requiring immediate action to restore biological balance. There was no "model" in the complex cognitive sense, but merely conditioned linkages between sensory inputs and motor outputs. 2.2. Emergence of Prediction as a Survival Mechanism Driven by Sensory Reality As organisms and environments grew more complex, mere reactive responses became insufficient. The need for predicting the future emerged to avoid dangers and seize opportunities. Here, the mind began developing basic internal models of reality. It no longer just responded to "what is," but evolved to include the anticipation of "what will be." These predictions were not arbitrary; they relied fundamentally on continuous inputs from the external world via the senses. This early development in predictive capacity was crucial; instead of merely reacting to hunger, the organism began to anticipate when it would be hungry and take proactive measures based on sensory cues from its internal and external environment. Here, a "need" transforms from a mere sensory signal into a tension resulting from a failure in prediction or a divergence from sensory-backed expectations related to survival.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-06-22
DOI
https://doi.org/10.5281/zenodo.15715202
Primary Topic
Embodied and Extended Cognition
Type
article
Field-Weighted Citation Impact
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article

Human Needs Through the Lens of the Unified Dynamic Model of the Mind (UDMM)

Zenodo (CERN European Organization for Nuclear Research)
Embodied and Extended Cognition
article

Human Needs Through the Lens of the Unified Dynamic Model of the Mind (UDMM)

article en

Abstract

Abstract This paper explores human needs from the perspective of the Unified Dynamic Model of the Mind (UDMM). Unlike traditional theories that treat needs as static hierarchies or innate drives, UDMM redefines them as manifestations of informational tension—temporary divergences between an agent's internal predictive model and incoming sensory inputs from the external world. We trace the evolutionary progression of this model from embodied biological responses to complex internal simulations of reality, culminating in the concept of a "virtual attractor" (W\_{\\text{ideal}}), which dynamically guides the system toward a state of maximum alignment, meaning, and satisfaction. Within this framework, needs become signals for restoring synchrony, allowing a unified account of physiological, cognitive, emotional, and existential needs. This paper offers a reconceptualization of motivational systems and introduces a dynamic classification of needs with applications in therapy, education, and user-centered design. 1. Introduction Within the UDMM framework, human needs are not static lists or isolated instinctual drives. Rather, they are understood as informational tensions—deviations from a virtual attractor that governs the alignment between the internal predictive model of the mind and its ever-changing sensory inputs. This reconceptualization frames every need as a momentary disruption in the flow of synchrony between the modeled world and its real counterpart, interpreted through the senses. 2. From Embodied Reflex to Predictive Simulation To ground our understanding of human needs within the Unified Dynamic Model of the Mind (UDMM), it's essential to first review the evolutionary and functional roots of this model. At its core, UDMM posits that the mind is not a passive information processor but a dynamic, active entity that originated as a simple biological embodiment, gradually evolving into a complex system capable of effectively simulating and synchronizing with reality. We can trace the evolutionary trajectory of this model through the following stages: 2.1. Primitive Embodiment and Sensory Reactivity At its most basic level, the mind originated as a biologically embodied system responding directly to environmental stimuli. These responses were primitive and instinctual, geared towards maintaining internal biological equilibrium for survival. In this early stage, "needs" directly translated into acute physiological deviations (such as hunger or pain) requiring immediate action to restore biological balance. There was no "model" in the complex cognitive sense, but merely conditioned linkages between sensory inputs and motor outputs. 2.2. Emergence of Prediction as a Survival Mechanism Driven by Sensory Reality As organisms and environments grew more complex, mere reactive responses became insufficient. The need for predicting the future emerged to avoid dangers and seize opportunities. Here, the mind began developing basic internal models of reality. It no longer just responded to "what is," but evolved to include the anticipation of "what will be." These predictions were not arbitrary; they relied fundamentally on continuous inputs from the external world via the senses. This early development in predictive capacity was crucial; instead of merely reacting to hunger, the organism began to anticipate when it would be hungry and take proactive measures based on sensory cues from its internal and external environment. Here, a "need" transforms from a mere sensory signal into a tension resulting from a failure in prediction or a divergence from sensory-backed expectations related to survival.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 55%
Embodied and Extended Cognition
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