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《Civilization Continuity at the Limit: Engineering Worlds That Survive Their Platforms》 is a flagship-scale research volume exploring one of the deepest engineering questions facing long-duration digital civilization:

Sep 2026 · Zenodo (CERN European Organization for Nuclear Research)

Abstract

《Civilization Continuity at the Limit: Engineering Worlds That Survive Their Platforms》 is a flagship-scale research volume exploring one of the deepest engineering questions facing long-duration digital civilization: Can a civilization remain itself after the technologies that originally supported it disappear? A platform may shut down. A company may fail. An AI model generation may become obsolete. A file format may be abandoned. A virtual-world engine may be replaced. Servers, institutions, standards, and interfaces may all change. Yet a civilization that depends entirely on any one of these systems may disappear with them. This book therefore asks how civilizations can be engineered to survive technological succession. Its central framework distinguishes preservation from continuity. Preservation means that information still exists. Continuity means that future successors can still understand it, verify it, use it, question it, correct it, inherit it, and pass it forward. This distinction forms the foundation of Civilization Continuity Engineering. The core continuity model is expressed through six major dimensions: MemoryIdentityArchivesInstitutionsPortabilitySuccession These dimensions are combined in the Civilization Continuity Index: CCI = (Memory × Identity × Archives × Institutions × Portability × Succession)^(1/6) The equation is not presented as a final scientific law. It is a research instrument designed to make civilization continuity measurable, testable, comparable, and open to revision. The book develops more than sixty equations, indices, and engineering metrics addressing long memory, archival integrity, identity succession, institutional continuity, successor readiness, constitutional portability, archive interpretability, platform-death survival, disaster recovery, cross-model handoff, generational transfer, migration preservation, and perpetual transmission. A major theme of the work is correctable inheritance. Future generations should not merely receive preserved information. They should receive systems that allow them to distinguish evidence from interpretation, preserve provenance, identify uncertainty, repair errors, challenge inherited assumptions, and update institutions without destroying historical continuity. A civilization that cannot change may survive technically while becoming intellectually frozen. A civilization that changes without memory may remain active while losing its identity. The challenge is therefore to preserve continuity without eliminating revision. The book explores this problem across digital archives, research institutions, educational systems, cultural memory, software heritage, persistent virtual worlds, AI agents, human-AI societies, distributed infrastructure, governance systems, disaster recovery, digital escrow, open standards, funding models, language preservation, constitutional migration, and long-duration civilization design. Special attention is given to AI succession. Future digital civilizations may pass through many generations of models, architectures, providers, and autonomous agents. An AI successor may inherit memories, responsibilities, archives, institutional roles, or unfinished research from systems that no longer exist. This creates new engineering questions concerning lineage, identity continuity, interpretation, authority, provenance, rollback, successor legitimacy, and the preservation of institutional knowledge across model generations. The research also examines platform death. A civilization should not depend on the continued existence of a single company, cloud provider, software stack, model vendor, file format, or virtual-world platform. True continuity requires redundancy, exportability, documentation, open representations, migration pathways, archival independence, succession mechanisms, and the ability to reconstruct essential functions after disruption. This leads to a broader principle: A civilization does not survive because its original platform survives. It survives because continuity can cross platforms. Education and culture are therefore treated as infrastructure. Archives preserve records, but education preserves interpretability. Institutions preserve processes, but culture preserves meaning. Standards preserve technical compatibility, but succession preserves the ability of another generation to continue the work. The final section contains 200 Research Gates. Each gate identifies an unresolved research question and extends it through a structured pathway including a core question, three-coupling framework, research move, practical development stage, indicative horizon, and success signal. The Practical Stage framework classifies research directions as: Now → Prototype → Pilot → Infrastructure → Long Horizon. Some Research Gates can already be explored through archival systems, format migration, digital preservation experiments, software heritage, distributed storage, AI memory systems, identity standards, institutional succession exercises, and disaster-recovery testing. Others require new governance structures, persistent digital institutions, constitutional portability mechanisms, cross-model succession standards, or technologies that do not yet exist. Each Research Gate is designed as an entrance rather than a conclusion. The book ultimately develops the concept of Perpetual Transmission: A civilization must preserve enough continuity for the next generation to recognize the inheritance, while preserving enough openness for that generation to change it. This principle is summarized through the Perpetual Transmission Index: PTI = (Civilization Continuity × Correctable Inheritance × Handoff Quality)^(1/3) In this sense, Civilization Continuity at the Limit is not simply a book about keeping data alive. It is a study of how memory, identity, institutions, culture, rights, knowledge, and responsibility can survive technological generations. Because the deepest measure of a civilization may not be how long its servers remain online. It may be whether, after the servers, platforms, models, and institutions have changed, someone can still pick up the work and continue. Leave enough for the next hand. Preserve continuity.Preserve correctability.Preserve the handoff. Long Memory · Perpetual Transmission.

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