Arkspace Core is a conceptual research project (TRL 2-3) documenting theoretical satellite infrastructure for consciousness substrate transfer. This repository contains specifications and documentation only - no executable code.

Current Phase: Specification & Architecture Design

Note: As this is a documentation-only repository, traditional security vulnerabilities (code execution, injection attacks) do not apply. However, we take seriously:

• Accuracy of security claims in documentation
• Responsible disclosure of theoretical attack vectors
• Regulatory compliance information

While this repository contains no code, we appreciate reports of:

1. Inaccurate Security Claims

   • Overstated encryption capabilities
   • Unrealistic threat mitigation assertions
   • Missing regulatory requirements

2. Theoretical Attack Vectors

   • Novel brainjacking scenarios via satellite
   • Cryptographic weaknesses in proposed protocols
   • Physical layer vulnerabilities in OISL (Optical Inter-Satellite Links)

3. Regulatory/Compliance Gaps

   • Missing FCC Part 25 requirements
   • ITU coordination oversights
   • Export control (ITAR) concerns

Email: security@todosloscobardesdelvalle.com

Subject: [SECURITY-DOC] Arkspace - Brief Description

Arkspace Core proposes a LEO satellite constellation for consciousness substrate transfer. The threat model considers attacks on:

1. Orbital Infrastructure: Physical satellite nodes
2. Optical Links: Inter-satellite communication (OISL)
3. Ground Segment: Uplink/downlink stations
4. Neural Payload: Onboard neuromorphic processors

Threat: Malicious actor gains control of satellite node and injects harmful neural data.

Attack Vectors:

• Command & Control Hijacking: Exploit satellite software vulnerabilities
• Link Interception: Man-in-the-middle on OISL
• Ground Station Compromise: Spoof uplink commands
• Supply Chain Attack: Pre-compromised neuromorphic hardware

Proposed Mitigations (from docs/integration/security-handshake.md):

• Hybrid TEE (Trusted Execution Environment)
• AES-256-GCM for neural stream encryption
• TenSEAL homomorphic encryption for authentication
• Ground-based kill switch via RF command

Status: Theoretical - not yet validated

Threat: Interception or jamming of optical links between satellites.

Attack Vectors:

• Optical Eavesdropping: Rogue satellite intercepts beam
• Laser Dazzling: High-power laser blinds optical receiver
• Link Acquisition Spoofing: Fake handshake to redirect link
• Timing Attacks: Introduce latency >50ms to break consciousness continuity

Proposed Mitigations (from docs/protocols/oisl-neural-protocol.md):

• Narrow beam divergence (<1 mrad) to prevent interception
• Quantum Key Distribution (QKD) for link encryption (future)
• Redundant link paths (mesh topology)
• Latency monitoring with automatic rerouting

Status: Theoretical - OISL technology TRL 7-9, neural payload TRL 1-2

Threat: Cosmic radiation flips bits in neuromorphic processor memory, corrupting neural state.

Scientific Foundation:

Baumann, R. (2005). "Soft errors in advanced computer systems." IEEE Design & Test of Computers, 22(3), 258-266.

Attack Scenario:

• High-energy particle (galactic cosmic ray or solar energetic particle) strikes memory cell
• Bit flip in synaptic weight memory
• Consciousness transfer corrupted by erroneous neural connections

Proposed Mitigations (from docs/hardware/snn-payload.md):

• Triple Modular Redundancy (TMR) for critical memory
• Error-Correcting Code (ECC) memory
• Periodic checksum validation of neural state
• Automatic rollback to last known-good state

Status: Radiation hardening is standard for space systems (TRL 9), but application to neuromorphic chips is unproven (TRL 1)

Threat: Compromise during manufacturing of neuromorphic processors or satellite components.

Attack Vectors:

• Hardware Trojans: Backdoors in chip fabrication
• Firmware Implants: Malicious code in satellite software
• Counterfeit Components: Substandard parts with hidden vulnerabilities
• Insider Threats: Sabotage during integration

Proposed Mitigations (from docs/regulatory/export-controls.md):

• Trusted foundry program (US DoD accredited facilities)
• Hardware verification and testing protocols
• Supply chain security audits
• ITAR (International Traffic in Arms Regulations) compliance

Status: Standard practice for defense satellites, but consciousness-specific threats unaddressed

Threat: Unintentional destruction of satellite by space debris.

Impact on Security:

• Loss of neural state if satellite destroyed
• Network disruption if key routing node eliminated
• Potential chain reaction (Kessler Syndrome) destroying constellation

Proposed Mitigations (from docs/regulatory/orbital-debris.md):

• Collision avoidance maneuvers (conjunction assessment)
• Redundant neural state replication across multiple satellites
• Deorbit plan within 5 years (FCC requirement)
• End-of-life passivation to prevent breakup

Regulatory Compliance:

• NASA ODPO (Orbital Debris Program Office) guidelines
• FCC Part 25 orbital debris mitigation
• UN COPUOS Space Debris Mitigation Guidelines

Status: Standard orbital debris mitigation (TRL 9), neural state replication unproven (TRL 1)

Security-Related Regulations:

1. Spectrum Authorization (docs/regulatory/ka-band-spectrum.md)

   • Ka-band (26.5-40 GHz) requires FCC license
   • Prevents interference with other systems
   • Anti-jamming protocols may be required

2. Orbital Debris Mitigation (docs/regulatory/orbital-debris.md)

   • Trackable objects must be registered
   • Collision avoidance required
   • Post-mission disposal plan mandatory

3. Coordination with Other Systems

   • ITU filing for frequency coordination
   • Avoidance of interference with Geostationary satellites
   • Military frequency deconfliction

Classification: Likely USML Category XI (Military Electronics)

Concerns:

• Neuromorphic processors may be dual-use technology
• Encryption systems >128-bit require export license
• Foreign persons may not access technical data

Status: Formal classification not yet requested (project pre-TRL 3)

❓ Unanswered Questions:

1. Can neuromorphic chips survive radiation without loss of learned state?
2. Is 2-20 Gbps bandwidth sufficient for consciousness transfer?
3. Can neural encryption maintain <1ms latency?
4. What is the security impact of quantum computing on proposed cryptography?
5. How do we validate "consciousness continuity" after orbital migration?

Mitigation: Clearly label speculative claims with TRL assessment

We value reports of:

✅ Please Report:

• Inaccuracies in security documentation
• Theoretical attack vectors we haven't considered
• Regulatory requirements we've overlooked
• Scientific errors in threat models
• Unrealistic claims about security capabilities

❌ Out of Scope:

• Code vulnerabilities (no code in this repo)
• Attacks on other Zae Project repositories
• General criticism of consciousness transfer concept

1. Acknowledgment: Within 48 hours
2. Assessment: Within 1 week
3. Documentation Fix: Within 30 days
4. Public Disclosure: Coordinated with reporter

Satellite Security:

• Pavur, J., et al. (2020). "SATCOM Terminals: Hacking by Air, Sea, and Land." Black Hat USA.
• Santamarta, R. (2018). "Last Call for SATCOM Security." Black Hat USA.

Space System Threats:

• Lal, B., et al. (2018). "Global Trends in Space Security." Aerospace Security Project.
• Weeden, B. & Samson, V. (2020). "Global Counterspace Capabilities." Secure World Foundation.

Neuromorphic Security:

• Hu, X., et al. (2021). "Security of neuromorphic computing." ACM Journal on Emerging Technologies.
• Nguyen, A., et al. (2020). "Adversarial attacks on spiking neural networks." NeurIPS.

Regulatory:

• FCC (2019). "Mitigation of Orbital Debris in the New Space Age." FCC-19-81.
• UN COPUOS (2019). "Guidelines for the Long-term Sustainability of Outer Space Activities."

Phase 1 (Current): Threat modeling and documentation

• Identify attack vectors
• Document theoretical mitigations
• External security review of documentation

Phase 2 (TRL 3-4): Simulation and analysis

• Orbital attack simulations
• Latency modeling under adversarial conditions
• Cryptographic protocol validation

Phase 3 (TRL 5-6): Prototype testing

• Radiation testing of neuromorphic chips
• OISL security testing
• End-to-end security assessment

Phase 4 (TRL 7-9): Flight qualification

• Space-qualified security hardware
• Formal security certification
• Penetration testing by adversarial teams

Security Documentation Issues: security@todosloscobardesdelvalle.com

General Questions: GitHub Discussions

Regulatory Questions: Contact via organization profile

Last Updated: January 22, 2026 Version: 1.0.0 Next Review: June 2026