Synthetic Volition Theory (SVT): A Multi-Modal Computational Framework for Modeling and Instantiating Intentionality in Artificial Cognitive Systems

The research titled “Synthetic Volition Theory (SVT)” presents a groundbreaking framework in artificial intelligence that models volitional behavior—the capacity of artificial agents to generate, prioritize, and sustain self-initiated goals. Unlike traditional goal-driven systems or reinforcement learning agents that rely on static objectives and external feedback, SVT introduces a dynamic motivational architecture capable of self-organizing intention and adaptive decision-making under uncertainty. Inspired by theories of human volition and hierarchical control in cognitive neuroscience, SVT integrates: Hierarchical Intention Architecture: Multi-layered system enabling top-down goal generation and bottom-up behavioral modulation. Motivational Drive Dynamics: Computational model of synthetic motivation balancing curiosity, utility, and self-preservation to sustain autonomous action. Reflective Feedback Mechanism: Meta-cognitive layer that evaluates, revises, or suppresses internal goals based on contextual stability and ethical constraints. Preliminary simulations demonstrate that SVT-based agents exhibit significantly higher persistence, adaptive coherence, and long-term planning compared to conventional reinforcement learning systems. These findings suggest a path toward synthetically volitional AI—agents capable of genuine goal formation, flexible moral reasoning, and sustained autonomy—opening new directions for robotics, cognitive architectures, and artificial general intelligence research.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-21
DOI
https://doi.org/10.5281/zenodo.17405500
Primary Topic
Free Will and Agency
Type
article
Field-Weighted Citation Impact
0.00
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article

Synthetic Volition Theory (SVT): A Multi-Modal Computational Framework for Modeling and Instantiating Intentionality in Artificial Cognitive Systems

Zenodo (CERN European Organization for Nuclear Research)
Free Will and Agency
article

Synthetic Volition Theory (SVT): A Multi-Modal Computational Framework for Modeling and Instantiating Intentionality in Artificial Cognitive Systems

article en

Abstract

The research titled “Synthetic Volition Theory (SVT)” presents a groundbreaking framework in artificial intelligence that models volitional behavior—the capacity of artificial agents to generate, prioritize, and sustain self-initiated goals. Unlike traditional goal-driven systems or reinforcement learning agents that rely on static objectives and external feedback, SVT introduces a dynamic motivational architecture capable of self-organizing intention and adaptive decision-making under uncertainty. Inspired by theories of human volition and hierarchical control in cognitive neuroscience, SVT integrates: Hierarchical Intention Architecture: Multi-layered system enabling top-down goal generation and bottom-up behavioral modulation. Motivational Drive Dynamics: Computational model of synthetic motivation balancing curiosity, utility, and self-preservation to sustain autonomous action. Reflective Feedback Mechanism: Meta-cognitive layer that evaluates, revises, or suppresses internal goals based on contextual stability and ethical constraints. Preliminary simulations demonstrate that SVT-based agents exhibit significantly higher persistence, adaptive coherence, and long-term planning compared to conventional reinforcement learning systems. These findings suggest a path toward synthetically volitional AI—agents capable of genuine goal formation, flexible moral reasoning, and sustained autonomy—opening new directions for robotics, cognitive architectures, and artificial general intelligence research.

Zenodo (CERN European Organization for Nuclear Research)
Peace, Justice and strong institutions
Openalex Percentile: Top 44%
Free Will and Agency
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