ROCKET PROPULSION ENGINEERING HANDBOOK

Can you turn rocket propulsion equations into confident engineering decisions without constantly searching through multiple dense textbooks?
Master rocket engine performance with practical, step-by-step calculations.
Turn propulsion theory into engineering decisions you can explain and defend.
Need clearer answers to complex rocket engine design problems?
Bridge the gap between aerospace engineering theory and practical rocket propulsion.
Understand the calculations behind thrust, specific impulse, and nozzle performance.
Explore modern rocket propulsion systems through practical engineering examples.
Build confidence in propulsion analysis, one worked calculation at a time.
Find rocket propulsion fundamentals and design workflows in one practical reference.
Does textbook theory leave gaps when real engineering calculations begin?
Are nozzle sizing, combustion, and turbopump trade-offs difficult to evaluate quickly?
Would a practical reference help connect equations, assumptions, and design decisions?
Written by Linda P. Angel, Rocket Propulsion Engineering Handbook brings together essential propulsion principles and calculation-driven learning. Its structured approach connects governing equations, explicit assumptions, step-by-step numerical examples, engineering interpretation, and practical design checks.
Inside this Guide you will find:
Rocket propulsion fundamentals — Connect mission requirements to engine performance.
Thrust and specific impulse — Interpret essential performance metrics.
Thermodynamics and compressible flow — Apply core engineering principles.
Rocket nozzle design — Understand expansion ratios and performance trade-offs.
Propellants and combustion — Examine energy release and operating considerations.
Liquid rocket engines — Compare major engine-cycle architectures.
Turbopumps and feed systems — Understand subsystem requirements.
Combustion chambers and injectors — Explore design considerations.
Cooling and combustion stability — Recognize critical engineering constraints.
Solid rocket motors — Understand solid-propulsion fundamentals.
Hybrid propulsion — Examine alternative chemical propulsion architectures.
Electric propulsion — Explore advanced propulsion principles.
Delta-v and mass ratio — Connect engine performance to mission requirements.
Staging and thrust-to-weight ratio — Evaluate system-level trade-offs.
Worked engineering examples — Follow calculations from inputs to conclusions.
Rather than replacing advanced academic references, this practical handbook complements deeper study with an accessible, organized approach. It is designed for aerospace engineering students, early-career propulsion engineers, rocketry practitioners, and technical professionals who want clearer explanations without sacrificing engineering rigor.
If you want to strengthen your propulsion calculations, then explore this handbook and practise the methods step by step.