Sonar

Related papers: 20

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Sonar (Sound Navigation and Ranging) is a sensing technology that measures distances by emitting sound pulses and detecting their echoes from surrounding surfaces. In robotics, sonar sensors — particularly ultrasonic rangefinders — provide robots with spatial awareness by measuring the time-of-flight of acoustic signals to calculate distances to nearby obstacles and surfaces. These measurements are used to construct occupancy grid maps, support simultaneous localization and mapping (SLAM), enable autonomous exploration, and guide real-time navigation in unknown environments. Sonar is especially valuable in underwater robotics, where acoustic sensing is the dominant perception modality for autonomous underwater vehicles (AUVs) performing hull inspection or seabed exploration. On land-based mobile robots, sonar is frequently fused with infrared, stereo vision, or other sensor modalities to improve mapping accuracy and robustness. Sonar matters because it offers a low-cost, reliable means of perceiving environments where cameras or lasers may struggle, and it laid much of the foundational groundwork for modern probabilistic mapping and localization methods that remain central to autonomous robot navigation today.

Top Cited Papers

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Mobile Robot Localization Using Sonar

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Advanced perception, navigation and planning for autonomous in-water ship hull inspection

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