Thruster-based Attitude Control

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Explores spacecraft propulsion principles, including thrust, acceleration, efficiency, and chemical propulsion in space mission design.

Covers the principles and applications of chemical propulsion systems in space missions.

Covers closed loop attitude control in space missions and techniques for achieving stabilization.

Covers space mission design, spacecraft energy, orbits, and maneuvers, including gravity effects, tethers, and interplanetary trajectories.

Introduces space propulsion systems, their design principles, and the importance of project management in aerospace engineering.

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

Covers space mission design, SpaceX Starship, attitude control systems, human spaceflight, and space tethers.

Explores attitude control methods in space missions, including gravity gradient, magnetic torquers, spinning spacecraft, and momentum devices.

Explores space mission design, propulsion, and re-entry techniques, including aerocapture and electric propulsion.

Covers the design process for a 200 N bi-propellant thruster, focusing on key parameters and methodologies for effective performance.