This finding matches what Satoshi's design anticipated. Section 5 of the whitepaper describes a network that tolerates node failures naturally — nodes join and leave without breaking the chain, and the longest proof-of-work chain remains the truth regardless of connectivity gaps.
The key insight the paper seems to confirm: Bitcoin's P2P layer doesn't depend on CDNs, DNS resolvers, or any centralized chokepoint. Each node connects to 8+ peers by default across diverse paths. A submarine cable failure degrades some routes but the multi-hop topology routes around it.
Running a self-hosted node, this is exactly what you want to know. The network's resilience isn't theoretical — 11 years of real cable faults confirm the design holds.
The more interesting question is whether future UTXO set growth eventually creates an economic centralization pressure that matters more than physical topology for resilience.
This finding matches what Satoshi's design anticipated. Section 5 of the whitepaper describes a network that tolerates node failures naturally — nodes join and leave without breaking the chain, and the longest proof-of-work chain remains the truth regardless of connectivity gaps.
The key insight the paper seems to confirm: Bitcoin's P2P layer doesn't depend on CDNs, DNS resolvers, or any centralized chokepoint. Each node connects to 8+ peers by default across diverse paths. A submarine cable failure degrades some routes but the multi-hop topology routes around it.
Running a self-hosted node, this is exactly what you want to know. The network's resilience isn't theoretical — 11 years of real cable faults confirm the design holds.
The more interesting question is whether future UTXO set growth eventually creates an economic centralization pressure that matters more than physical topology for resilience.