Relative Position Measurement Request Priority Handling

The patent changes the parameter of request acceptance from binary (accept/reject) to priority-based (high/medium/low priority levels). By introducing priority parameters and corresponding handling strategies, the system can differentiate between important and less important requests, improving processing efficiency while maintaining comprehensive measurement coverage through selective acceptance based on priority thresholds.

The patent implements dynamic request handling where the terminal's processing state adapts to incoming requests. The system dynamically adjusts its behavior based on current processing capacity, ongoing measurements, and request priorities. This dynamic approach allows the terminal to optimize between accepting new requests and maintaining ongoing measurements, resolving the contradiction between coverage and efficiency.

The patent simplifies resource allocation by changing the complexity parameter through standardized priority levels (high/medium/low) and corresponding predefined handling rules. Instead of complex continuous optimization, the system uses discrete priority parameters with clear decision logic, reducing allocation complexity while maintaining service quality through systematic priority-based scheduling.

The patent segments the measurement request handling into distinct priority levels (high, medium, low) with specific handling strategies for each level. This segmentation simplifies the resource allocation process by breaking down the complex decision-making into manageable segments, where each priority level has predetermined rules, thereby reducing overall system complexity while ensuring service quality.

The patent implements dynamic resource allocation that adjusts processing intensity based on request priority and current system state. When high-precision measurements are detected, the system dynamically reduces concurrent processing to minimize resource contention, while maintaining high throughput for lower-priority requests. This dynamic adjustment resolves the contradiction by adapting processing capacity to precision requirements in real-time.

The patent applies different processing quality levels to different requests based on their priority and type. High-priority requests receive dedicated resources with minimal contention for maximum precision, while lower-priority requests share resources for maintained throughput. This local quality differentiation allows the system to optimize precision where needed while maintaining overall throughput, resolving the contradiction between the two metrics.