Online Course – Certified Professional Internship in Aircraft Hovercraft from Google and the University of Colorado Boulder

Explore a career in spacecraft relative orbits. Master the theories and concepts of spacecraft relative orbits.

Suggested by: Coursera (What is Coursera?)

Professional Certificate

Advanced

No prior knowledge required

Time to complete the course

7-day free trial

No unnecessary risks

Skills you will acquire in the course

  • Spacecraft rendezvous
  • Track disturbances
  • Relative route design
  • Non-linear control
  • Relative motion control

What you will learn in the course

Courses for which the course is suitable

  • Researcher in the field of aircraft trajectory mechanics
  • Space Orbital Planning Engineer
  • Expert in developing solutions for controlling relative paths
  • Project Manager in the field of meetings and anchoring in space
  • Task key for relative routes
  • Relative Motion Management System Engineer
  • Researcher in the field of space debris reduction
  • Expert in designing relative motion models

Internship – 3-part course series

This specialization deals with the relative trajectories of spacecraft in space. This is an important topic for mission scenarios such as:

  • Meeting and docking route
  • Rotation routes for testing
  • Space assembly
  • Reducing space debris
  • Applications in space-based science

Assuming the learner has completed a comprehensive course in single-aircraft trajectory mechanics, including:

  • Solutions to the two-body problem
  • Troubleshooting flight time
  • Understanding J2 interference on aircraft
  • Developing solutions for controlling relative paths

The internship is suitable for researchers who need to learn the basics of:

  • Deriving relative equations of motion for circular paths
  • Elliptical
  • Or even hyperbolic

Comparisons are examined and made between relative path descriptions:

  • Non-linear
  • and linear

Including Cartesian arc coordinates and path component differences. Analytical solutions for relative motion are developed to understand basic relative motion prototypes. Next, the effect of the J2 perturbation on relative motion is examined, including the development of relative trajectories that do not change under J2. Finally, nonlinear relative motion feedback control laws are developed to actively control relative motion. The specialization focuses on learners interested in:

  • Meetings and anchoring
  • Services on the route
  • Or developing tasks for relative paths

Tangible Learning Project

The learner will learn how to plan, model, and control relative motion trajectories appropriate for a variety of mission scenarios. The specialization culminates in a final project in which learners will apply their knowledge to investigate how a utility aircraft will steer toward a tumbling space debris object.

Details of the courses that make up the specialization

Relative Space Vehicle Motion – Course 1 • 33 hours

Course Details

What you will learn:
  • Describe relative motion with a variety of coordinates
  • Understand standard models of relative trajectories
  • Assess the effect of disturbances on relative motion
  • Determine relative constrained trajectories for a range of central eccentricities
Skills to Acquire:
  • Category: Variable equations
  • Category: Geometry of relative paths
  • Category: Independent relative paths in J2
  • Category: Kinematics of differential track components
  • Category: Differential equations in relative motion

Relative Space Vehicle Motion Control – Course 2 • 23 hours

Course Details

What you will learn:
  • Numerically simulate the relative motion of the spacecraft
  • Analyze the stability of relative motion
  • Develop solutions for feedback control in relative motion
Skills to Acquire:
  • Category: Stability Analysis
  • Category: Relative Motion Feedback Control Development
  • Category: Nonlinear Control Theory
  • Category: Simulate closed loop control

Final Project – Aviation and Control of Space Vehicle Creation – Course 3 • 19 hours

Course Details

What you will learn:
  • Develop a long-term approach for a meeting mechanism
  • Relative motion control solutions in the LVLH system
  • Implement non-Kepler relative motion trajectories to fly steadily in a body that is constant relative to the debris object
Skills to Acquire:
  • Category: Relative motion image
  • Category: Non-Keplerian Motion Control
  • Category: Access route planning