Coordinated Mode Selector for Base Station Transmission Timing

The patent applies dynamics by making the coordinated transmission timing adjustable rather than fixed. The timing is dynamically set based on the measured X2 transmission time plus a predetermined margin, allowing the system to adapt to varying network conditions. This resolves the contradiction by enabling the timing to be optimized for each specific situation rather than being conservatively set for the worst-case scenario only.

The patent changes the parameter of transmission timing from a fixed value (based on longest X2 transmission time) to a variable value (measured X2 transmission time plus margin). This parameter change allows the system to achieve both reliability (by accounting for actual transmission time) and efficiency (by avoiding excessive waiting time), directly resolving the technical contradiction.

The patent applies preliminary action by measuring the X2 transmission time in advance and using this measured value to set the coordinated transmission timing. By performing the measurement beforehand and adding a predetermined margin, the system prepares the optimal timing in advance, avoiding both excessive delays and premature transmissions, thus resolving the contradiction between efficiency and reception performance.

The patent uses feedback by measuring the actual X2 transmission time and using this measured information to adjust the coordinated transmission timing. The measured timing is fed back into the system to determine the optimal transmission schedule, ensuring both efficiency and reception performance are optimized based on actual network conditions rather than worst-case assumptions.

The patent applies dynamics by transforming the fixed coordinated transmission timing into a dynamic value that is calculated based on measured X2 transmission time. This allows the system to maintain stability through a systematic approach while adapting to varying network conditions, as the timing is recalculated based on actual measurements rather than being completely fixed or completely variable.

The patent applies universality by creating a timing mechanism that serves multiple functions: it provides stability through systematic calculation, adapts to network conditions through measurement-based adjustment, and works across different scenarios by using a standardized formula (measured time plus margin). This universal approach resolves the contradiction by making the system both stable and adaptable simultaneously.