Simultaneous Localization and Mapping (SLAM). Localization Perfect Map + Observations with errors = Pretty good Localization (Average out errors in observations,

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Presentation transcript:

Simultaneous Localization and Mapping (SLAM)

Localization Perfect Map + Observations with errors = Pretty good Localization (Average out errors in observations, look for a place on the map that matches our observations)

Mapping Perfect Localization + Observations with errors = Pretty good map (Average out errors, add new observations to the map)

Perfect Map Perfect Localization Unfortunately, we don’t usually have either of these. Often, we want to build the map as we go GPS isn’t perfect, wheel rotation sensors aren’t either

SLAM

How do we calculate those probabilities? Kalman Filters Particle Filters Bayesian networks

References Russel, Stuart. Norvig, Peter. Artifical Intelligence: A Modern Approach – Chapter 15 talks about kalman filters, etc. – Chapter 25 talks about SLAM Thrun, Sebastian, et. all. Probabilistic Robotics – Slides at Thrun, Sebastian. Videos and Animations.