Abstract

This specification defines an integrated architectural design for deep space communication and planetary exploration. It replaces traditional standalone, single-point-of-failure space missions with an interconnected, system-wide, self-healing network topology.

Traditional radio frequency (RF) communications in the ecliptic plane suffer from severe data chokepoints driven by the Inverse-Square Law, solar plasma interference, and planetary occlusions. This architecture resolves these constraints by deploying a constellation of non-coplanar satellites into high-latitude, critical-inclination ($i = 63.435^\circ$) Keplerian frozen orbits around target planets. This orbital geometry provides continuous, line-of-sight laser (optical) links entirely above the flat, crowded ecliptic plane, enabling high-gigabit data transmission velocities.

To justify the procurement and deployment budgets of these assets, the orbital nodes are integrated with a payload suite consisting of five advanced scientific sensors:

1. Laser-Induced Fluorescence (LIF) & Raman Spectrometers

2. Low-Frequency Subsurface Cryo-Chirp Ground Penetrating Radar (GPR)

3. Hyper-Precision MEMS Quadrupole Atmospheric Ingress Sniffers

4. Quantum Diamond Nitrogen-Vacancy (NV) Magnetometer Arrays

5. Multi-Angle Laser-Induced Breakdown Spectroscopy (LIBS) Dust Imagers

By routing raw multi-sensor data through an onboard multi-objective optimization loop running Shannon entropy calculations, the network transforms passive infrastructure into active data science engines. High-entropy anomalies (e.g., active vapor plumes or complex biosignature detections) trigger immediate autonomous routing overrides, sharding the spacecraft's physical power grid to maximize laser transmission bandwidth and stream critical data system-wide without human intervention.

Creative Commons License

Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.

Additional Files
Latex (()).pdf (136 kB)
Download

Share

COinS