Synthetic Planetary Magnetospheres and Shielding Distributed EM Lattice Architecture for Planetary-Scale Radiation Governance

Synthetic Planetary Magnetospheres and Shielding, Distributed EM Lattice Architecture for Planetary-Scale Radiation Governance

Version 12 presents a distributed electromagnetic lattice architecture for synthetic planetary magnetospheres and radiation governance. Rather than relying on a single, monolithic magnetic source, SYNMAG distributes power, field generation, sensing, and deterministic control across autonomous lattice nodes. Each node integrates a Sr-90 Governed Thermal-Electric Retention Unit (GTRU), electromagnetic coil array, plasma-source allocation, diagnostics, and the Deterministic Governance and Supervisory Protocol (DIGSP).

The paper develops a governed plasma-current arc as the active dayside obstacle, supported by distributed lattice nodes and an optically active plasma/dust layer. The architecture is examined across three conditional application environments: Mars atmospheric-retention and radiation-governance concepts, Luna habitat and industrial shielding, and Earth magnetospheric augmentation for CME and radiation-belt resilience. The paper does not propose a monolithic field generator; it develops a fault-tolerant, incrementally deployable, self-healing lattice with autonomous AIM Pod replacement logistics.

Version 12 strengthens the engineering and validation basis of the SYNMAG architecture. It introduces a conditional plasma-arc standoff scaling relation based on governed arc current, arc radius, solar-wind pressure, and plasma amplification; a preliminary node-engineering envelope; an order-of-magnitude Faraday-coupling treatment; a dust-replenishment model for optical-depth governance; a consistent Sr-90 decay and replacement-threshold framework; and preliminary AIM Pod logistics and node-loss models. It also bounds climate-relevant optical-depth capability as theoretical, undeveloped, and deferred to SYNMAG-006.

The work is intentionally structured as a governed, falsifiable architecture. Mars and Earth standoff claims remain conditional on SYNMAG-002 validation of plasma amplification, current closure, and pressure-balance response. The composite injection efficiency assumption (eta_inject = 0.6) is explicitly identified as pending SYNMAG-004 validation. Sr-90 processing, node fabrication, coupling, replacement cadence, and lattice-loss tolerance are presented as engineering programme requirements rather than completed demonstrations.

SYNMAG is part of the Griffiths Canon and connects GTRU power systems, DIGSP deterministic governance, AIM Pod logistics, governed plasma confinement, and electromagnetic field-shaping architectures into a planetary-scale radiation-governance framework.

Keywords

synthetic magnetosphere; planetary shielding; Mars; Luna; Earth; plasma current arc; electromagnetic lattice; radiation governance; DIGSP; Sr-90; GTRU; AIM Pods; Faraday coupling; plasma dust confinement; space systems; Griffiths Canon