Space Flight Mechanics (Prof. Manoranjan Sinha, IIT Kharagpur) | Aeronautics and Astronautics

Space Flight Mechanics

Space Flight Mechanics (2020 Version). Instructor: Prof. Manoranjan Sinha, Department of Aerospace Engineering, IIT Kharagpur. This course is designed to introduce orbital mechanics of satellites. The course will begin with central force motion and then proceed to the two-body and three-body dynamics under mutual gravitational acceleration. It will also introduce the concept of Lagrange Points and their stability. Moreover, the concept of general orbit perturbation will also be discussed. Earth as a non-spherical body and its effect on gravity will be elaborated. Preliminary orbit determination of the satellite will be discussed. Finally, orbit transfer will be elaborated. (from nptel.ac.in)

Space Flight Mechanics

Lecture 01 - Conic Section

Lecture 02 - Conic Section (cont.)

Lecture 03 - Conic Section (cont.)

Lecture 04 - Central Force Motion

Lecture 05 - Gravitational Central Force Motion

Lecture 06 - Gravitational Central Force Motion (cont.)

Lecture 07 - Gravitational Central Force Motion (cont.)

Lecture 08 - 2-Body Problem

Lecture 09 - 2-Particle System Motion under Mutual Gravitational Attraction

Lecture 10 - 2-Particle Body Problem

Lecture 11 - 2-Particle (Body) System

Lecture 12 - Classical Orbital Elements/Parameters

Lecture 13 - Classical Orbital Elements/Parameters (cont.)

Lecture 14 - Classical Orbital Elements/Parameters (cont.)

Lecture 15 - Classical Orbital Elements and its Inverse Problems

Lecture 16 - Inverse Problem of Orbit Determination (Classical Orbital Elements)

Lecture 17 - Problem Solving on 2-Body Problem Related to Orbit and Orbital Elements

Lecture 18 - Problem Related to Orbital Elements

Lecture 19 - Kepler's Equation/ Kepler's Problem

Lecture 20 - Kepler's Problem (cont.)

Lecture 21 - Kepler's Problem (cont.)

Lecture 22 - Kepler's Equation

Lecture 23 - Kepler's Equation (cont.)

Lecture 24 - Kepler's Equation (cont.)

Lecture 25 - Kepler's Equation (cont.)

Lecture 26 - Kepler's Equation (cont.)

Lecture 27 - Kepler's Equation (cont.)

Lecture 28 - Kepler's Equation (cont.)

Lecture 29 - 3-Body Problem

Lecture 30 - 3-Body Problem (cont.)

Lecture 31 - 3-Body Problem (cont.)

Lecture 32 - 3-Body Problem (cont.)

Lecture 33 - 3-Body Problem (cont.)

Lecture 34 - Restricted 3-Body Problem

Lecture 35 - Restricted 3-Body Problem (cont.)

Lecture 36 - Restricted 3-Body Problem (cont.)

Lecture 37 - Restricted 3-Body Problem (cont.)

Lecture 38 - Restricted 3-Body Problem (cont.)

Lecture 39 - Restricted 3-Body Problem (cont.)

Lecture 40 - Restricted 3-Body Problem (cont.)

Lecture 41 - Restricted 3-Body Problem (cont.)

Lecture 42 - Restricted 3-Body Problem (cont.)

Lecture 43 - Restricted 3-Body Problem (cont.)

Lecture 44 - Restricted 3-Body Problem (cont.)

Lecture 45 - Restricted 3-Body Problem (cont.)

Lecture 46 - Restricted 3-Body Problem (cont.)

Lecture 47 - General Perturbation Theory

Lecture 48 - General Perturbation Theory (cont.)

Lecture 49 - General Perturbation Theory (cont.)

Lecture 50 - General Perturbation Theory (cont.)

Lecture 51 - General Perturbation Theory (cont.)

Lecture 52 - General Orbit Perturbation Theory

Lecture 53 - General Orbit Perturbation Theory (cont.)

Lecture 54 - General Orbit Perturbation Theory (cont.)

Lecture 55 - General Orbit Perturbation Theory (cont.)

Lecture 56 - General Orbit Perturbation Theory (cont.)

Lecture 57 - General Orbit Perturbation Theory (cont.)

Lecture 58 - General Orbit Perturbation Theory (cont.)

Lecture 59 - General Orbit Perturbation Theory (cont.)

Lecture 60 - General Orbit Perturbation Theory (cont.)

Lecture 61 - General Orbit Perturbation Theory (cont.)

Lecture 62 - General Orbit Perturbation Theory (cont.)

Lecture 63 - General Orbit Perturbation Theory (cont.)

Lecture 64 - General Orbit Perturbation Theory (cont.)

Lecture 65 - General Orbit Perturbation Theory (cont.)

Lecture 66 - General Orbit Perturbation Theory (cont.)

Lecture 67 - General Orbit Perturbation Theory (cont.)

Lecture 68 - Orbit Determination

Lecture 69 - Orbit Determination (cont.)

Lecture 70 - Orbit Determination (cont.)

Lecture 71 - Orbit Determination (cont.)

Lecture 72 - Transformation from Celestial to Earth Fixed Reference Frame

Lecture 73 - Time

Lecture 74 - Time (cont.)

Lecture 75 - Orbit Determination

Lecture 76 - Orbit Determination (cont.)

Lecture 77 - Orbit Determination (cont.)

Lecture 78 - Orbit Determination (cont.)

Lecture 79 - Trajectory Transfer

Lecture 80 - Trajectory Transfer (cont.)

Lecture 81 - Trajectory Transfer (cont.)

Lecture 82 - Trajectory Transfer (cont.)

Lecture 83 - Trajectory Transfer (cont.)

Lecture 84 - Trajectory Transfer (cont.)

Lecture 85 - Trajectory Transfer (cont.)

Lecture 86 - Trajectory Transfer (cont.)

Lecture 87 - Interplanetary Transfer

Lecture 88 - Interplanetary Transfer (cont.)

Lecture 89 - Interplanetary Transfer (cont.)

Lecture 90 - Patched Conic Section Method for Interplanetary Transfer

Lecture 91 - Interplanetary Mission

Lecture 92 - Interplanetary Mission (cont.)

Lecture 93 - Interception in Coplanar Orbit

Lecture 94 - Interception in Coplanar Orbit (cont.)

Lecture 95 - Interception in Non-Coplanar Orbit

Lecture 96 - Interception in Non-Coplanar Orbit (cont.)

Lecture 97 - Interception in Non-Coplanar Orbit (cont.)

Lecture 98 - Non-Coplanar Transfer

Lecture 99 - Sphere of Influence

References

Space Flight Mechanics (2020 Version)
Instructor: Prof. Manoranjan Sinha, Department of Aerospace Engineering, IIT Kharagpur. This course is designed to introduce orbital mechanics of satellites.