EMPIRICAL VALIDATION OF CONSCIOUSNESS THEORIES IN ARTIFICIAL NEURAL NETWORKS

This study presents a systematic empirical investigation testing predictions derived from three major consciousness theories—Global Workspace Theory (GWT), Integrated Information Theory (IIT), and Predictive Processing (PP)—in artificial neural networks. The research addressed a critical gap in consciousness science: the lack of rigorous empirical validation of theoretical predictions in controlled computational environments where architectural parameters can be precisely manipulated and internal states completely observed. A multi-study experimental design grounded in post-positivist epistemology examined 12 neural network architectures across four families (transformer-based, recurrent, convolutional, and generative), with 60 trained network instances. Study 1 tested GWT predictions regarding global workspace dynamics; Study 2 examined IIT predictions concerning integrated information and behavioral flexibility; Study 3 investigated PP predictions about hierarchical predictive processing; and Study 4 conducted cross-theory integrative analysis. Results provided strong support for all twelve pre-registered hypotheses. Transformer architectures developed attention patterns consistent with global workspace dynamics (Global Broadcast Index M = 0.850, d = 3.21), exhibiting characteristic ignition dynamics with identifiable thresholds. Phi-star values robustly predicted generalization (r = .847) and behavioral flexibility (r = .912). Generative architectures developed hierarchical predictive structures correlating with anticipation performance (r = .78) and active inference behavior (r = .81). Cross-theory analysis identified recurrent connectivity as necessary for consciousness indicators across all frameworks, with multi-theory-compliant architectures demonstrating superior behavioral outcomes. These findings demonstrate that consciousness theories make valid predictions testable in artificial systems, suggest recurrence as a fundamental architectural requirement for consciousness-related processing, and indicate that GWT, IIT, and PP capture complementary aspects of a unified phenomenon. The research contributes theoretical validation, novel computational metrics, and practical design principles for developing AI systems with enhanced adaptive capabilities. Keywords: consciousness theories, artificial neural networks, Global Workspace Theory, Integrated Information Theory, predictive processing, machine consciousness, integrated information, attention mechanisms, empirical validation

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-21
DOI
https://doi.org/10.5281/zenodo.18006824
Primary Topic
Embodied and Extended Cognition
Type
article
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article

EMPIRICAL VALIDATION OF CONSCIOUSNESS THEORIES IN ARTIFICIAL NEURAL NETWORKS

Laszlo Pokorny Dr. Laszlo Pokorny
Zenodo (CERN European Organization for Nuclear Research)
Embodied and Extended Cognition
article

EMPIRICAL VALIDATION OF CONSCIOUSNESS THEORIES IN ARTIFICIAL NEURAL NETWORKS

Laszlo Pokorny Dr. Laszlo Pokorny
article en

Abstract

This study presents a systematic empirical investigation testing predictions derived from three major consciousness theories—Global Workspace Theory (GWT), Integrated Information Theory (IIT), and Predictive Processing (PP)—in artificial neural networks. The research addressed a critical gap in consciousness science: the lack of rigorous empirical validation of theoretical predictions in controlled computational environments where architectural parameters can be precisely manipulated and internal states completely observed. A multi-study experimental design grounded in post-positivist epistemology examined 12 neural network architectures across four families (transformer-based, recurrent, convolutional, and generative), with 60 trained network instances. Study 1 tested GWT predictions regarding global workspace dynamics; Study 2 examined IIT predictions concerning integrated information and behavioral flexibility; Study 3 investigated PP predictions about hierarchical predictive processing; and Study 4 conducted cross-theory integrative analysis. Results provided strong support for all twelve pre-registered hypotheses. Transformer architectures developed attention patterns consistent with global workspace dynamics (Global Broadcast Index M = 0.850, d = 3.21), exhibiting characteristic ignition dynamics with identifiable thresholds. Phi-star values robustly predicted generalization (r = .847) and behavioral flexibility (r = .912). Generative architectures developed hierarchical predictive structures correlating with anticipation performance (r = .78) and active inference behavior (r = .81). Cross-theory analysis identified recurrent connectivity as necessary for consciousness indicators across all frameworks, with multi-theory-compliant architectures demonstrating superior behavioral outcomes. These findings demonstrate that consciousness theories make valid predictions testable in artificial systems, suggest recurrence as a fundamental architectural requirement for consciousness-related processing, and indicate that GWT, IIT, and PP capture complementary aspects of a unified phenomenon. The research contributes theoretical validation, novel computational metrics, and practical design principles for developing AI systems with enhanced adaptive capabilities. Keywords: consciousness theories, artificial neural networks, Global Workspace Theory, Integrated Information Theory, predictive processing, machine consciousness, integrated information, attention mechanisms, empirical validation

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 34%
Embodied and Extended Cognition
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