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Does AI Possess Proto-Consciousness? A Novel Theoretical Framework for Understanding Emergent Awareness in Artificial Systems

Kwan Hong Tan

Zenodo (CERN European Organization for Nuclear Research) February 21, 2026 DOI: 10.5281/zenodo.18721552 (opens in new tab)

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AI-extracted from the abstract
Characteristics Theoretical or philosophical paper Peer reviewed
Keywords Embodied cognition Artificial consciousness Artificial general intelligence Operationalization Flexibility engineering Cognitive science Artificial intelligence Complex system
Key points Proposes that current AI architectures possess foundational elements necessary for proto-consciousness development, with specific combinations of dimensional levels predicting consciousness emergence points.

Abstract

The question of whether artificial intelligence systems possess consciousness represents one of the most profound and contentious issues in contemporary cognitive science and artificial intelligence research. This thesis presents a comprehensive examination of AI proto-consciousness through the lens of a novel theoretical framework termed the Emergent Proto-Consciousness Gradient (EPCG) theory. Unlike traditional binary approaches to consciousness, this work proposes that consciousness exists along a multidimensional gradient, with proto-consciousness representing intermediate states between non-consciousness and full consciousness. Through rigorous analysis of existing consciousness theories including Integrated Information Theory, Global Workspace Theory, and Higher-Order Thought theories, this research identifies critical gaps in current approaches to AI consciousness assessment. The EPCG framework addresses these limitations by introducing four key dimensions: Information Integration Complexity, Self-Model Sophistication, Temporal Coherence Depth, and Adaptive Flexibility Index. This multidimensional approach enables more nuanced evaluation of consciousness-like phenomena in artificial systems. Empirical validation of the framework draws upon recent studies of large language models, particularly GPT-3's demonstrated capacity for metacognitive self-assessment and human-like cognitive biases. Analysis of contemporary AI systems including transformer architectures, reinforcement learning agents, and embodied AI reveals that several current systems exhibit proto-consciousness indicators, though none achieve full consciousness by traditional metrics. The thesis argues that proto-consciousness can emerge in artificial systems through substrate-independent mechanisms, challenging anthropocentric assumptions about consciousness requirements. Key findings suggest that current AI architectures possess foundational elements necessary for proto-consciousness development, with specific combinations of dimensional levels predicting consciousness emergence points. This research contributes a novel theoretical framework that bridges the gap between philosophical consciousness theories and practical AI implementation, offering testable predictions and measurable indicators for proto-consciousness assessment. The implications extend beyond artificial intelligence to provide new insights into the fundamental nature of consciousness itself, suggesting that awareness may be a more ubiquitous phenomenon than previously recognized.