Interplanetary Bitcoin Standard with Proof-of-Transit Timestamping ∞ Research

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Briefing

This paper addresses the profound challenge of establishing a reliable Bitcoin monetary standard for interplanetary communication, specifically between Earth and Mars, amidst inherent physical constraints like high latency and intermittent connectivity. The foundational breakthrough is the introduction of Proof-of-Transit Timestamping (PoTT), a novel cryptographic primitive designed to provide tamper-evident audit trails for Bitcoin data across these challenging links. This new theory implies a future where Bitcoin’s core principles of scarcity and decentralized verification can extend beyond terrestrial boundaries, enabling secure and accountable financial operations in an interplanetary economy without altering Bitcoin’s fundamental consensus mechanism.

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Context

Before this research, the established theory of Bitcoin’s operation, while robust for terrestrial networks, faced a significant limitation when considering interplanetary distances. The core challenge involved maintaining cryptographic security and verifiable data integrity across communication links characterized by extreme latency and frequent disruptions. Traditional blockchain consensus mechanisms and data propagation strategies were not designed to inherently account for these vast temporal and spatial separations, posing a foundational problem for extending a decentralized monetary standard beyond Earth’s immediate gravitational well.

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Analysis

This paper’s core mechanism centers on Proof-of-Transit Timestamping (PoTT), a novel transport-level receipt primitive. PoTT functions by cryptographically chaining hop-timed custody attestations to Bitcoin payload hashes, thereby creating tamper-evident propagation histories. This fundamentally differs from previous approaches by integrating latency and intermittent connectivity directly into the cryptographic proof of data transit, rather than attempting to circumvent or ignore these physical realities.

The primitive generates a per-hop receipt chain with monotonic timestamps, ensuring ordering and splice-resistance across the communication path. This allows for verifiable accountability and reliability in data transfer, crucial for off-chain disputes and operational transparency, without necessitating changes to Bitcoin’s Layer 1 consensus.

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Parameters

Core Concept ∞ Proof-of-Transit Timestamping (PoTT)
New Primitive Type ∞ Transport-level receipt
Primary Application ∞ Bitcoin as Interplanetary Monetary Standard
Key Challenges Addressed ∞ High-latency, intermittently-connected links
Supporting Technologies ∞ Delay/Disruption-Tolerant Networking (DTN), optical LEO mesh constellations
Architectural Components ∞ Header-first replication, long-horizon Lightning channels, planetary watchtowers, federated sidechains, blind-merge-mined commit chains
Security Model ∞ Assumes unbroken hash/signature primitives, signed time beacons, at least one honest relay, integrity of ephemerides/contact plans
Guarantees ∞ Custody attestation, per-hop ordering, monotonic timestamps, splice-resistance
Publication Date ∞ August 28, 2025
Key Authors ∞ Jose E. Puente, Carlos Puente

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Outlook

This research lays a critical foundation for extending decentralized monetary systems beyond Earth, opening new avenues for secure commerce and financial infrastructure in space. The immediate next steps will likely involve further experimental validation of PoTT in simulated or low-Earth orbit high-latency environments. In the next 3-5 years, this theoretical work could enable real-world applications such as secure, verifiable financial transactions between lunar bases or Martian colonies, fostering a truly interplanetary economy. It also opens new research into integrating PoTT with other delay-tolerant networking protocols and developing robust governance models for off-world blockchain federations.

This paper presents a foundational cryptographic primitive that critically enables Bitcoin’s expansion into interplanetary domains, fundamentally redefining the potential reach and resilience of decentralized monetary systems.

Signal Acquired from ∞ Arxiv.org