C Value Calculation for Uplink Power Control Mode Transitions

The patent applies dynamics by making the C value calculation method adaptive to different radio resource modes. The system dynamically adjusts the calculation approach based on whether the mobile station is in dedicated mode or packet idle mode, allowing the power control mechanism to respond to changing channel conditions rather than using a static calculation method.

The patent changes the parameter calculation approach by introducing different calculation methods for C value depending on the radio resource mode. Specifically, it modifies how the normalized received signal level is calculated when transitioning from dedicated mode to packet idle mode, using filtering techniques and specific equations tailored to each mode's characteristics.

The patent applies preliminary action by preparing the C value calculation in advance for different radio resource modes. The system pre-establishes the calculation methods and filtering mechanisms so that when mode transitions occur, the power control can be adjusted reliably without delay, as the computational framework is already in place.

The patent implements feedback by continuously monitoring the radio resource mode and adjusting the C value calculation accordingly. The system uses the calculated C value to control uplink power, and this feedback loop ensures that power control remains reliable even during mode transitions, as the calculation adapts to current channel conditions.

The patent applies segmentation by dividing the C value calculation method into distinct approaches for different radio resource modes. Instead of using a single unified method, the system segments the calculation logic into dedicated mode-specific calculations and packet idle mode-specific calculations, allowing each segment to be optimized for its specific channel conditions.

The patent achieves universality by creating a power control framework that can handle multiple radio resource modes through a unified architectural approach. The system uses a common structure with mode-specific parameters and filtering mechanisms, allowing the same basic framework to adapt to different modes without requiring completely separate implementation for each mode.