Module #1 Introduction to Orbital Mechanics Overview of the basics of orbital mechanics, including Keplers laws and the fundamental principles of space travel
Module #2 Orbital Elements Definition and explanation of the six orbital elements:semi-major axis, eccentricity, inclination, longitude of the ascending node, argument of periapsis, and true anomaly
Module #3 Two-Body Problem Mathematical derivation and discussion of the two-body problem, including gravitational attraction and orbital trajectories
Module #4 Orbital Energies Explanation of kinetic energy, potential energy, and total energy in orbital mechanics, including energy conservation and transfer
Module #5 Hohmann Transfer Orbits Introduction to Hohmann transfer orbits, including calculations and applications in space mission design
Module #6 Orbital Maneuvers Types and calculations of orbital maneuvers, including impulse burns, gravity assists, and orbit raising
Module #7 Spacecraft Propulsion Systems Overview of propulsion systems used in spacecraft, including chemical, electric, and nuclear power
Module #8 Orbital Perturbations Effects of gravitational perturbations, radiation pressure, and other forces on orbital trajectories
Module #9 Celestial Mechanics Introduction to celestial mechanics, including the study of the motion of celestial bodies and their interactions
Module #10 Ephemeris Generation Methods for generating ephemeris data, including orbital predictions and state vector calculations
Module #11 Orbit Determination Techniques and algorithms for determining orbital parameters from measurements, including least-squares estimation and Kalman filters
Module #12 Astrodynamics Study of the motion of spacecraft in the vicinity of celestial bodies, including planetary entry, descent, and landing
Module #13 Space Navigation Fundamentals Introduction to space navigation, including the principles of navigation and types of navigation systems
Module #14 Inertial Navigation Systems Principles and applications of inertial navigation systems, including gyroscopes and accelerometers
Module #15 GPS and GNSS Overview of the Global Positioning System (GPS) and other Global Navigation Satellite Systems (GNSS)
Module #16 Orbit and Attitude Determination Methods for determining the attitude and orbit of a spacecraft, including star trackers and attitude control systems
Module #17 Space Mission Analysis and Design Introduction to space mission analysis and design, including mission requirements, constraints, and trade-offs
Module #18 Trajectory Design and Optimization Methods for designing and optimizing spacecraft trajectories, including launch windows and interplanetary transfers
Module #19 Spacecraft Operations and Navigation Overview of spacecraft operations, including navigation, communication, and control
Module #20 Autonomous Navigation Principles and applications of autonomous navigation, including sensor fusion and decision-making algorithms
Module #21 Deep Space Navigation Challenges and techniques for deep space navigation, including long-distance communication and navigation
Module #22 Planetary Defense and Asteroid Navigation Introduction to planetary defense and asteroid navigation, including asteroid detection and deflection
Module #23 Space Debris and Collision Avoidance Overview of space debris, including its causes, effects, and mitigation strategies
Module #24 Advanced Orbit Determination Techniques Advanced methods for orbit determination, including machine learning and artificial intelligence
Module #25 Course Wrap-Up & Conclusion Planning next steps in Orbital Mechanics and Space Navigation career
