Scenario and run manifest
Scenario identifier, target selection, swarm configuration, trial number, timestamps, software version, and run status.
A structured simulation protocol for testing whether the OLE v2.0 five-drone swarm can identify, safely capture, relocate, and preserve orbital debris in a traceable holding orbit.
The protocol tests whether an autonomous five-drone OLE v2.0 swarm can identify a target in the 1–10 kg class, coordinate safely around it, capture it, relocate it to a stable holding orbit, and preserve a traceable inventory record rather than destroy the material.
A modeled run is useful only when safety and preservation are evaluated together: the swarm must control relative motion, respect collision and separation constraints, complete the disposition maneuver within its delta-v budget, and leave an auditable record of what was captured and where it was placed.
The sequence starts with the existing seeded catalog and adds controlled stressors so each claim can be inspected against a known baseline. The public debris-field simulation and the open-source simulation source are reference artifacts for modeled exploration, not flight feeds.
Select representative 1–10 kg targets from the seeded catalog, set the orbital shell, initial formation geometry, mission clock, and environmental assumptions. Record every input before a run begins.
Run the scenario without capture or relocation actions to establish the relative-motion, conjunction, and near-miss baseline against which swarm interventions can be compared.
Propagate relative states, exercise decentralized relative navigation, and test whether the swarm can classify and maintain a target track while staying inside the prescribed approach corridor.
Introduce communication latency, sensor uncertainty, and one or more unavailable swarm members. Inspect whether the remaining drones coordinate without a single point of control and enter a fail-safe state when limits are exceeded.
Model the capture interface, separation clearance, transfer trajectory, and delta-v consumption. Check that the target remains controlled and that the proposed holding orbit is stable within the stated maneuver and propellant constraints.
Repeat across target states, uncertainty levels, latency profiles, and member-loss cases. Compare each outcome to the safety, coordination, capture, relocation, and preservation criteria, preserving both passes and failures in the run record.
The protocol is intended to produce the following evidence formats. These are modeled outputs and reporting structures—not unrun measurements or claims that a live mission has generated them.
Scenario identifier, target selection, swarm configuration, trial number, timestamps, software version, and run status.
Seed values, initial states, noise and latency models, environmental simplifications, thresholds, and declared limits.
Modeled position, velocity, attitude or state estimates, and orbital-element series for the target and swarm.
Relative-position error, approach corridor margins, message delay, stale-state intervals, and coordination responses.
Threshold crossings, avoidance actions, member-loss responses, abort conditions, and recovery or safe-hold events.
Planned and modeled maneuver cost, remaining margin, separation reserve, and any budget exceedance.
Initial target orbit, modeled holding-orbit state, transfer summary, separation geometry, and stability checks.
Traceable target identity, custody and disposition fields, plus a criterion-by-criterion summary of modeled results.
Required evidence is the review gate for each claim. Illustrative examples are non-authoritative placeholders that show the expected shape of a record; they are not live mission evidence.
Required evidenceReference frame and epoch, propagation model, environmental assumptions, and uncertainty bounds used for the state.
Illustrative exampleNon-authoritative placeholder: a modeled state in J2000 at a declared epoch with a stated propagator, drag assumption, and position/velocity bounds.
Required evidenceObservation source, timestamp and coverage, units or frame, and sensor, noise, and latency assumptions.
Illustrative exampleNon-authoritative placeholder: a modeled observation window with a named source, UTC timestamps, declared units, and injected sensor noise and latency.
Required evidencePlanned and realized state changes, delta-v and burn timing, separation, budget, and abort details.
Illustrative exampleNon-authoritative placeholder: a modeled burn plan compared with realized state change, including separation margin, delta-v reserve, and any abort trigger.
Required evidenceThreshold, observed result, criterion status, reviewer, and run or artifact reference for each decision.
Illustrative exampleNon-authoritative placeholder: a modeled threshold comparison marked pass or fail with a reviewer name and link to the run artifact.
This page and its linked artifacts describe software simulations and seeded or modeled data only. They are not telemetry from an operating spacecraft, a flight qualification, a regulatory approval, a live collision alert, or a guarantee of mission performance.
Simulated validation is one stage in an evidence chain. Hardware-in-the-loop testing, ground testing, independent safety review, regulatory work, and an on-orbit demonstration each require separate test plans and separate evidence. None of those later-stage results should be inferred from this protocol.