Line-Circle-Square (LCS): A Multilayered Geometric Filter for Edge-Based Detection
This work addresses computational bottlenecks for mobile robots in crowded environments, though it appears incremental as it builds on existing edge detection methods.
The paper tackles the problem of high computational complexity and overconfidence in edge-based object detection for mobile robots by introducing the Line-Circle-Square (LCS) filter, which improves detection precision and reduces resource usage in real-time scenarios.
This paper presents a state-of-the-art filter that reduces the complexity in object detection, tracking and mapping applications. Existing edge detection and tracking methods are proposed to create suitable autonomy for mobile robots, however, many of them face overconfidence and large computations at the entrance to scenarios with an immense number of landmarks. The method in this work, the Line-Circle-Square (LCS) filter, claims that mobile robots without a large database for object recognition and highly advanced prediction methods can deal with incoming objects that the camera captures in real-time. The proposed filter applies detection, tracking and learning to each defined expert to extract higher level information for judging scenes without over-calculation. The interactive learning feed between each expert increases the consistency of detected landmarks that works against overwhelming detected features in crowded scenes. Our experts are dependent on trust factors' covariance under the geometric definitions to ignore, emerge and compare detected landmarks. The experiment validates the effectiveness of the proposed filter in terms of detection precision and resource usage in both experimental and real-world scenarios.