Chronological operational sequence for asteroid mining and in-situ resource utilization — the foundation of the entire off-world economy.
Deploy autonomous mineral profiling probes before any physical contact. These probes perform detailed spectral analysis, core sampling, 3D mapping, resource valuation, and economic feasibility reporting.
While probes are working, construct orbital manufacturing platforms to mass-produce the mining fleet.
Fully built fleet travels to the target asteroid.
Mining begins only after automated systems are in place. We start fully automated/teleoperated for safety and speed.
Expand with crewed habitats, advanced smelters, shipyards, and permanent infrastructure built from local ISRU materials.
Requirement: Every asteroid mining campaign shall begin with a dedicated Phase 0 autonomous reconnaissance phase using mineral-profiling probes. Probe core sampling is permitted in Phase 0. Anchoring, excavation, and extraction are not, until Phase 0 is complete.
Rationale: Eliminates risk and ensures only high-value, structurally suitable asteroids are selected for full operations, preserving multi-century economic and safety margins.
Open Questions: No sufficiency threshold for probe data. No selection score.
Requirement: All mineral-profiling probes shall perform simultaneous high-resolution resource mapping and habitability/hollow-base compatibility assessment (structural integrity, volatiles, radiation shielding potential).
Rationale: Enables selection of asteroids that are not only economically viable but can become permanent self-sustaining bases without additional scouting missions.
Open Questions: None at v0.5
Requirement: Orbital manufacturing platforms (3.1.2) may be activated in parallel with Phase 0. The operator authorises activation. Fabrication pauses at the probe-viability review. A completed fleet is held for retargeting if the target is not viable.
Rationale: Removes launch-window pressure and accelerates time-to-first-revenue while maintaining full operator oversight.
Requirement: Mining fleet deployment shall occur only after the operator selects the target and consents. ASI analysis is advisory. Deployment also requires orbital manufacturing completion.
Rationale: Preserves full human/post-biological command authority at every critical decision point (Section 5.1).
Requirement: Physical extraction operations shall commence only after automated validation and explicit operator consent. SRS-v1 is not the monitoring system for this card.
Rationale: Ensures fail-operational, profitable, and safe start of mining with zero unnecessary risk to assets or future habitability.
Requirement: All extracted material shall be processed to defined purity and valuation standards using on-board or orbital ISRU systems before transfer to manufacturing or storage.
Rationale: Creates a standardised, tradable resource pool that powers the entire off-world economy without Earth dependency.
Requirement: Every mining asset (probes, fleet vessels, processing units, outfitting modules) shall be built on the Universal Modular Platform (Section 3.2) and the 3.1.19 network standards. PIS-v1 is an upgrade path, not a Phase 0 to 4 requirement. This card does not import an ASI override.
Rationale: Guarantees fleet-wide interoperability, hot-swappability, and multi-century maintainability.
Requirement: All mining and replication activities shall remain under explicit operator consent at every stage. On sentience detection the IPLS-5.1-003 halt applies to every mining asset. A kill-switch stops actuation, preserves compute state, and only the operator may reset it.
Rationale: Preserves absolute human/post-biological command authority and ethical guardrails across all autonomous operations.
Requirement: All extracted asteroid material shall undergo immediate on-site or orbital ISRU processing to produce standardised feedstock (metals, volatiles, regolith pellets) meeting defined purity and form-factor specifications before storage or transfer.
Rationale: Converts raw regolith into immediately usable resources, enabling closed-loop operations and eliminating Earth resupply dependency from day one.
Requirement: All processed material shall be transferred via standardised PIS-v1 compliant containers and automated handling systems integrated with internal transport (3.1.8) and interplanetary logistics (3.1.18).
Rationale: Creates seamless, traceable flow from mine to factory to storage, supporting exponential scaling without bottlenecks.
Requirement: Mining operations shall scale from initial automated swarm to full ecosystem (smelters, shipyards, habitats) using IPLS-SRS-v1 self-replicating systems under explicit operator consent.
Rationale: Enables exponential growth while maintaining safety, structural integrity, and full command authority.
Requirement: Crewed modules and personnel shall only be deployed after automated mining has operated profitably and safely for a validated period and all life-support, power, and security systems (3.1.5–3.1.15) are fully operational.
Rationale: Protects human and post-biological lives by ensuring the base is self-sustaining before crew arrival.
Requirement: All mining assets and early base infrastructure shall integrate with Base Security, Defense & Marshall Service Systems (3.1.15) from the moment extraction begins. Replication of a security unit requires operator consent. A marshall may deploy an existing unit, not copy one. Reporting uses 3.1.19, not a portal.
Rationale: Provides continuous protection of assets, personnel, and infrastructure throughout the transition from fully automated to crewed operations.
Requirement: Every mining asset shall maintain telemetry and command linkage via Network Standards (3.1.19). Entangled backup is not a link. On loss of link beyond T the asset finishes the current safe step and holds.
Rationale: Enables real-time oversight, predictive maintenance, and instantaneous response across the entire solar-system fleet.
Requirement: The operator certifies a base expansion-ready and consents before construction of colony-seeding ships begins. Self-sufficiency is undefined. The operator allocates output until crewed governance exists.
Rationale: Turns every successful base into a new seeding hub, enabling exponential multi-body infrastructure growth.
Requirement: Mining and ISRU assets shall be designed for a minimum 200-year service life with graceful degradation and field repair from ISRU spares. Life-critical systems remain at the 500-year ethics-page figure. TSP-v1 readiness criteria are undefined.
Rationale: Ensures the mining engine remains operational for centuries even as newer technologies are introduced.
Requirement: Once initial ISRU output reaches defined thresholds, the mining operation shall generate positive economic value (standardised resource credits) to fund further expansion, fleet growth, and colony seeding without external subsidy.
Rationale: Asteroid mining is the repeatable income engine that makes the entire solar-system civilisation self-funding and sustainable for centuries.
Requirement: Transition to crewed operations requires explicit operator consent after 180 days of continuous fail-operational performance of systems 3.1.5 to 3.1.15. Profitability is not a crew-safety gate. The reset event for the 180 days is unset.
Rationale: Protects biological and post-biological crews by ensuring the habitat is truly self-sustaining before human presence.
Requirement: Mining output shall be routed to base excavation, pressurisation, and internal build-out on Universal Modular Platforms. The operator allocates until crewed governance exists. SRS-v1 promotion to this section is unset.
Rationale: Turns the mining operation into the literal foundation of permanent habitats and shipyards.
Requirement: Mining operations and base infrastructure shall monitor structural integrity, radiation, thermal load, and micro-meteoroids. The alert recipient is the operator. Pending a response, extraction holds. Alert thresholds are unset.
Rationale: Prevents catastrophic failure in a multi-century environment and provides data for future expansion planning.
Requirement: Resource allocation from mining output shall be governed by local governance frameworks (3.1.11) with full operator transparency, audit trails, and ethical oversight.
Rationale: Ensures fair, transparent, and ethically sound distribution of the wealth generated by the asteroid mining engine.
Requirement: Once self-sufficient, the mining base shall support standardised export of refined resources via interplanetary logistics (3.1.18) using PIS-v1 compliant cargo systems.
Rationale: Turns every successful asteroid into a node in the solar-system economy and funds further interstellar expansion.
Requirement: Mature mining bases shall begin construction of colony-seeding ships and seed swarms (3.1.17) using local ISRU to initiate the next wave of expansion.
Rationale: Every established base becomes a new seeding hub, enabling exponential growth of the interstellar civilisation.
Requirement: All mining assets and infrastructure shall be designed with full TSP-v1 supersession readiness, retaining 200+ year self-sustaining capability even after future upgrades.
Rationale: Ensures no asset is ever abandoned and the mining foundation remains operational across centuries of technological evolution.