MoneroSpace/openenet-ms-01-monero-space-decentralized-satellite-network
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layout, title, author, date, amount, milestones, payouts
layout title author date amount milestones payouts
fr OPENENET-MS01-MoneroSpace-Decentralized-Satellite-Network OPENENET Team 2025-04-12 30000 Monero
name funds done status
Satellite Node Hardware Design & Team Formation 7000 Monero false unfinished
name funds done status
Radiation-Resistant Node Software Development & Compliance Preparation 8000 Monero false unfinished
name funds done status
Satellite Prototype Testing & Spectrum Application 10000 Monero false unfinished
name funds done status
Community Testnet Launch & Initial Deployment 5000 Monero false unfinished
date amount
2025-09-30 7000 Monero
date amount
2026-03-31 8000 Monero
date amount
2026-09-30 10000 Monero
date amount
2027-03-31 5000 Monero

What

Core Objectives

MoneroSpace aims to build a decentralized censorship-resistant satellite communication network using open-source hardware and encryption protocols, with three primary goals:

  1. Global Ubiquitous Access: Enable Monero transactions in regions lacking terrestrial networks (e.g., oceans, polar areas) or under censorship (e.g., Iran, Syria).
  2. Physical-Layer Resistance: Bypass ground-based internet blockades via low-earth orbit satellites to ensure independent transaction broadcasting.
  3. Community-Driven Ecosystem: Open-source satellite hardware designs and communication protocols to allow third-party node deployment.

Technical Framework

Component Specification
Satellite Node 3U CubeSat form factor, equipped with an 8-core ARM Cortex-A72 processor (radiation-hardened), 8GB LPDDR4 memory, and 512GB industrial eMMC storage.
Communication Primary: 1550nm laser link (2.5Gbps, 500km range); Secondary: Ku-band RF (12-18GHz, DVB-S2X compliant).
Node Software Customized Monero full node with differential synchronization, optimized for low-latency processing in space environments.

Who

Core Team

The OPENENET Team is currently in formation, comprising aerospace engineers with satellite payload design experience and blockchain developers with Monero protocol optimization expertise. Specific member profiles will be added as recruitment progresses.

Community Collaboration

  • Open-Source Platforms: Code and documentation will be hosted on Gitea and NextCloud, with public access available upon project launch.
  • Contribution Channels: Future plans include developer bounties for protocol enhancements and hardware modifications, denominated in XMR.

Proposal

Budget Allocation (Monero)

Category Amount Purpose
Hardware R&D 15,000 Design and prototype 3 satellites, including radiation-hardened components (e.g., BAE RAD750) and laser modules.
Software Development 8,000 Optimize Monero nodes for satellite environments and develop the Monero-Light communication protocol.
Compliance & Audit 4,000 ITU spectrum applications, FCC orbit registration, and GDPR data compliance certification.
Community Operations 2,000 Incentivize developer contributions, host technical workshops, and maintain multilingual documentation.
Contingency Fund 1,000 Mitigate risks such as launch delays, component shortages, or regulatory changes.

Fund Management

  • Multi-Signature Wallet: A 3/5 threshold wallet will be established, with signatories including technical leads, compliance advisors, and community-elected volunteers (details to be announced in the project's next phase).
  • Transparency: Quarterly financial reports will be published on NextCloud, including expense breakdowns, compliance status updates, and fund usage audits.

Risk Mitigation

Risk Mitigation Strategy
Radiation Damage Redundant hardware modules and software error-correcting codes (ECC) to ensure data integrity.
Spectrum Denial Apply for primary (Ku-band) and secondary (Ka-band) frequencies, supported by legal experts in ITU regulations.
Funding Shortfall Pre-sell satellite node sponsorships and launch community crowdfunding campaigns on Monero-friendly platforms.

Schedule

2025

  • Q2: Finalize satellite hardware specifications and begin core team recruitment.
  • Q3: Open-source hardware designs on Gitea and initiate ITU spectrum applications.
  • Q4: Procure radiation-hardened components and assemble the first satellite prototype.

2026

  • Q1: Develop and test radiation-resistant node software in a thermal vacuum chamber.
  • Q2: Submit FCC orbit registration and begin ground station deployment in Switzerland/Iceland.
  • Q3: Launch a test satellite (non-transactional payload) to validate orbit parameters.
  • Q4: Integrate laser communication modules and prepare for community testnet trials.

2027

  • Q1: Launch the community testnet, inviting developers to validate node performance.
  • Q2: Deploy the first operational satellite cluster, enabling limited transaction routing for pilot regions.
  • Q3: Expand the network to 10+ satellites and publish the first compliance audit report.

Conclusion

MoneroSpace seeks to enhance Monero's resilience by adding a space-based infrastructure layer, ensuring secure and censorship-resistant access for users globally. While specific technical details and team information are still being finalized, this proposal provides a compliant framework for community-driven development. We welcome feedback and support to advance this decentralized, censorship-resistant initiative.

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