Robotic Mower Boundary Confirmation for Accurate Work Area Mapping

The system performs preliminary actions by creating a initial map using positioning device before actual working, then iteratively refines the map through multiple working cycles. The controller continuously compares actual working boundaries with mapped boundaries and corrects deviations, gradually improving map accuracy without requiring manual boundary line arrangement.

The system implements feedback mechanisms where the controller continuously monitors the actual working boundaries during operation and compares them with the stored map data. When deviations are detected, the system automatically corrects the map information and uses the refined map in subsequent working cycles, progressively improving accuracy through iterative feedback loops.

The system employs self-service principles where the automatic lawn mower performs its own map refinement during normal working operations. The controller utilizes the existing positioning device to detect boundary deviations and automatically corrects the map data without requiring external intervention or upgraded equipment, making the system self-improving while maintaining cost-effectiveness.

Instead of relying on high-precision positioning devices from the start, the system applies partial correction actions during each working cycle. It focuses on correcting only the boundary deviations detected during operation rather than requiring complete high-precision mapping upfront, achieving acceptable accuracy through accumulated incremental improvements.

The system dynamically adjusts its operational characteristics based on the current working cycle. In the first working cycle, it operates in confirmation mode with slower speed and frequent boundary checks to ensure safety. In subsequent cycles with refined maps, it transitions to efficient mode with higher speed and reduced checks, automatically optimizing the balance between safety and efficiency as the system matures.

The system implements periodic boundary confirmation checks during working operations. Rather than continuous checks that would slow down operation, it performs confirmation actions at regular intervals or at specific boundary crossing points, maintaining safety while minimizing time loss. The periodic nature of these checks allows the system to balance safety verification with efficient operation.