Radio Terminal Timer Management for Latency-Critical Data

The terminal dynamically adjusts its power saving behavior based on the type of data traffic. For delay-tolerant data (DTT), the terminal enters power saving mode to reduce power consumption. For latency-critical data (LCD), the terminal maintains active connection states to ensure timely delivery. This dynamic adaptation resolves the contradiction by making power consumption and communication reliability context-dependent rather than fixed.

The system changes the operational parameters of the communication terminal based on traffic type. When LCD is detected, the timer is prevented from expiring, keeping the terminal in active state (CELL-FACH or CELL-DCH). When only DTT is present, the terminal transitions to power saving mode (IDLE or URA-PCH). This parameter change approach allows the system to optimize between power consumption and communication reliability based on real-time conditions.

The patent applies different connection state strategies to different types of data traffic locally. For LCD traffic, the terminal maintains active connection states (CELL-FACH or CELL-DCH) to enable immediate transmission. For DTT traffic, the terminal allows transition to URA-PCH or IDLE states. This local differentiation resolves the contradiction by ensuring that only traffic requiring fast establishment actually uses active states, while other traffic can tolerate power saving modes.

The patent segments data traffic into two categories: latency-critical data (LCD) and delay-tolerant data (DTT). This segmentation allows the system to apply different power management and connection state strategies to each segment. LCD traffic gets priority treatment with active connection maintenance, while DTT traffic can utilize power saving modes, thereby resolving the contradiction between fast connection establishment and network congestion.

The terminal periodically monitors incoming data traffic to determine whether to maintain active connection states or transition to power saving mode. When LCD is detected in the buffer, the terminal maintains active state. When only DTT or no data is present, the terminal enters power saving mode. This periodic assessment resolves the contradiction by making the connection state dynamic rather than static.

The system dynamically switches between active connection states and power saving modes based on real-time traffic conditions. The terminal does not permanently maintain active states but rather adapts its connection state according to the presence of LCD or DTT traffic. This dynamic behavior resolves the contradiction by ensuring active states are maintained only when necessary for reliability.

The system changes the timer expiration behavior based on traffic type. For LCD traffic, the timer is prevented from expiring by continuous data presence, keeping the terminal in active state and avoiding latency. For DTT traffic, the timer is allowed to expire, enabling power saving mode and extending battery life. This conditional parameter change resolves the contradiction between battery life and communication latency.

The patent applies different timer management strategies to different traffic types locally. LCD traffic receives special treatment with timer prevention mechanisms that maintain active connection states. DTT traffic follows normal timer expiration and power saving transitions. This local differentiation resolves the contradiction by ensuring latency-critical communications are not affected by power saving transitions.