Ariadne's Thread in Deep Space: A Conceptual Framework for AI-Driven, Self-Sustaining, and Communication-Anchored Interstellar Exploration
DOI:
https://doi.org/10.65166/w703kr86Keywords:
interstellar exploration, distributed artificial intelligence, von Neumann self-replicating probes, governed swarm replication, deep-space relay networks, delay-tolerant networking, autonomous spacecraft architectureAbstract
The fundamental incompatibility between human biological limits and the timescales required for interstellar travel renders crewed deep-space mission architectures structurally unreliable across the distances involved (Klee, 2018). Multi-generational ship concepts, while theoretically acknowledged in the literature, introduce compounding failure risks — genetic, psychological, sociological, and mechanical — whose cumulative probability of catastrophic mission failure across centuries of transit approaches certainty (Harkins, 1978; Marin et al., 2022). This paper proposes and analytically evaluates Project Ariadne, a three-pillar conceptual framework for interstellar exploration that eliminates biological survival as a mission-critical dependency by distributing intelligence, physical continuity, and informational persistence across integrated machine systems. The three pillars of the framework are: a fully distributed AI-as-ship architecture in which the spacecraft itself constitutes the mission's operational and adaptive intelligence; a governed swarm-replication system in which population-controlled robotic agents sustain the vessel's physical infrastructure across centuries through layered governance mechanisms including partial replication architecture, apoptosis-analogue decommissioning protocols, and resource-budget constraints; and the Ariadne Thread, a progressive relay-node network deployed along the vessel's trajectory that maintains bi-directional communication between the mission and Earth across interstellar distances. The paper introduces the Checkpoint Horizon as an original theoretical construct, reconceptualizing relay nodes from passive signal repeaters to active mission state archives that preserve recoverable snapshots of mission status at each deployment interval, enabling future Earth-launched missions to reconstruct, locate, and coordinate with the original mission regardless of elapsed time. Drawing on literature in von Neumann probe theory, distributed artificial intelligence, swarm robotics, delay-tolerant networking, and deep-space communication architecture, the paper evaluates each pillar's theoretical grounding, assesses the framework's integrated architectural coherence, and identifies the principal research priorities required for its further development. The paper argues that intelligence, rather than biological presence, is the operative and ultimately sufficient definition of the explorer.
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