propulsion

Analyze rocket propulsion systems to optimize engine selection and delta-v budgets.

17|Updated Feb 16, 2026
One-click install
npx skills add https://github.com/devideamax/aerospace-team --skill propulsion
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: propulsion
Source: https://github.com/devideamax/aerospace-team/tree/main/skills/propulsion
Command: npx skills add https://github.com/devideamax/aerospace-team --skill propulsion

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Expert rocket propulsion analysis — engine selection, delta-v budgets, staging optimization, mission architecture, and propellant trade studies. Use when designing launch vehicles, evaluating propulsion systems, and reviewing mission feasibility.

Core Features & Use Cases

  • Engine selection: compare propulsion options and select best-fit engines for a given mission.
  • Delta-v budgeting: compute mass ratios, losses, and feasibility for target orbits.
  • Staging optimization: determine optimal stage counts, mass splits, and thrust requirements.
  • Propellant trade studies: evaluate propellant choices for performance, cost, and risk.
  • Mission architecture: integrate propulsion with overall vehicle design and mission feasibility.

Quick Start

Trigger the propulsion skill with a mission brief: specify your destination, payload mass, and reusability goals to generate a complete propulsion architecture.

Frequently Asked Questions about propulsion

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I calculate delta-v budgets and mass ratios for a target orbit?

Calculate delta-v budgets by computing mass ratios, accounting for losses, and evaluating orbit feasibility for your mission. Provide reliable engine data and staging constraints to ensure accurate performance models.

What is the best way to compare rocket engines for launch vehicle mission design?

Compare rocket engines by evaluating propulsion options against your specific mission requirements to select the best-fit engines. Apply staging constraints and performance models to ensure the selected engines meet your mission architecture.

How do I optimize staging for a launch vehicle with specific payload mass and reusability goals?

Optimize staging by determining optimal stage counts, mass splits, and thrust requirements for your launch vehicle. Specify your destination, payload mass, and reusability goals to generate a complete propulsion architecture.

Can I use this for propellant trade studies evaluating performance, cost, and risk?

Yes, you can conduct propellant trade studies by evaluating different propellant choices for performance, cost, and risk. This integrates with overall vehicle design and mission feasibility to ensure accurate results.

Do I need reliable engine data and staging constraints for accurate rocket propulsion analysis?

Yes, reliable engine data and staging constraints are required for accurate rocket propulsion analysis. Apply these inputs alongside performance models to ensure accurate results for mission planning and stage sizing.

Why does my mission architecture require integrating propulsion with overall vehicle design?

Mission architecture requires integrating propulsion with overall vehicle design to review mission feasibility. This ensures engine selection, delta-v budgets, and staging optimization align with your launch vehicle constraints.