Interplanetary Trajectories: Concepts and Strategies

Related lectures (32)

Explores orbit insertion, losses during ascent, shuttle missions, re-entry, and final approach.

Covers circular and elliptical orbits, orbital period, velocity, energy, and angular momentum.

Explores gravitational forces, orbital mechanics, energy aspects, and satellite orbits.

Covers Kepler's three laws, explaining planet motion around the sun.

Covers private space missions to the ISS, including future plans, nodal regression, Sun-synchronous orbits, and rendezvous strategies.

Covers the two-body problem, Newton's law, gravitational perturbations, and Kepler's laws.

Covers the Kepler Laws, orbital motion, reduced mass, and orbital periods.

Explains catch up rates between circular and elliptical orbits, including key calculation differences.

Discusses lunar exploration, spacecraft propulsion techniques, and the mechanics of space mission design.

Covers spacecraft propulsion, interplanetary transfer, aerodynamic braking, and orbit insertion techniques in space missions.

Covers the effects of burns on relative motion in space missions, focusing on posigrade and retrograde burns.

Explores aerodynamic braking maneuvers in space missions using planetary atmospheres to adjust spacecraft orbits and save propellant.

Page 2 of 2