Aerospace Skills

Aerospace engineeringskills for AI agents.

Ten installable skill modules. Forty-five local calculations. No server connection.

Inspect the source
J2 propagation

SIM +00:00

Latitude—

Longitude—

Altitude—

Velocity—

Generated from Orbital Mechanics ground-track and J2-propagation operations. Educational simulation.

Verified from the generated skill manifest and bundled runners.
10Agent Skills
45calculations
LocalNode execution

Flight-qualified skill catalog.

Each skill carries its own operating instructions, references, examples, safety boundary, and self-contained runner.

Inspect all skill dossiers
01Flight PlanningResolve airports, estimate routes, inspect representative aircraft data, and normalize engineering units.8 calcs02AtmosphereCalculate ISA state and deterministic vertical wind profiles.2 calcs03Coordinate FramesTransform positions across geodetic, Earth-fixed, and inertial frames.3 calcs04AerodynamicsScreen wing loads, airfoil behavior, induced drag, and static stability.4 calcs05Propeller SystemsEstimate propeller performance and electric UAV mission energy.3 calcs06Rocket AnalysisScreen rocket sizing, trajectory performance, and launch angle.3 calcs07Orbital MechanicsAnalyze two-body orbits, perturbation propagation, and transfer maneuvers.7 calcs08Guidance, Navigation & ControlEstimate states from noisy measurements and synthesize linear feedback gains.2 calcs09Aircraft PerformanceScreen airspeed, loading, takeoff, landing, and reserve-fuel cases.7 calcs10Trajectory OptimizationExplore trajectory design spaces with reproducible optimization and uncertainty tools.6 calcs
Cooperative orbital rendezvousPHASING
Cooperative spacecraft rendezvous transferA servicer spacecraft performs a two-burn Hohmann transfer from a lower circular orbit to meet a cooperative client spacecraft in a higher circular orbit.BURN 1BURN 2 / RENDEZVOUSPHASECLIENT ORBITSERVICER ORBIT

Phase angle5.69°

Transfer time48 min

Burn 182.6 m/s

Burn 281.7 m/s

00:00
Cooperative spacecraft servicing demonstration. Two-body screening only; non-weapon and not for flight operations.

Output that shows its work.

This result is generated by the bundled orbital runner during the site build. Units, assumptions, warnings, and provenance travel with every calculation.

orbital_rendezvous_planningBUILD VERIFIED
{
  "ok": true,
  "operation": "orbital_rendezvous_planning",
  "result": {
    "transfer": {
      "delta_v1_ms": 82.570832,
      "delta_v2_ms": 81.681599,
      "total_delta_v_ms": 164.252431,
      "transfer_semi_major_axis_m": 6928137,
      "time_of_flight_s": 2869.496408
    },
    "required_phase_angle_deg": 5.6914,
    "maneuver_count": 2
  },
  "assumptions": [
    "Coplanar near-circular Hohmann rendezvous"
  ],
  "warnings": [
    "No collision avoidance, navigation covariance, or finite-burn targeting"
  ],
  "provenance": [
    "Two-impulse Hohmann phasing relation"
  ]
}

One command. The right harness.

The installer detects supported coding agents, asks only when the target or scope is ambiguous, and preserves every unrelated skill.

  1. A
    Detect

    Find Codex, Claude Code, Cursor, Gemini CLI, GitHub Copilot, or OpenCode.

  2. B
    Install atomically

    Stage all ten skills, replace only managed folders, and keep unrelated configuration intact.

  3. C
    Use natural language

    Ask the agent for the analysis. The relevant skill supplies the runner contract and safety rules.

CodexClaude CodeCursorGemini CLIGitHub CopilotOpenCode

Know the boundary.

A calculation can be transparent and reproducible without being operationally approved.

Use classificationResearch onlyNot for flight

Load the aerospace toolset into your agent.

Read installation and usageView on GitHub