Power Management TRIZ Cases

Segments real-time traffic into independent service periods across multiple links to reduce latency while managing scheduling complexity.

A local SIP agent in the wireless modem handles signaling tasks while the application processor sleeps.

Autonomous UE sidelink detection identifies nearby terminals, reducing CLI scheduling overhead and energy consumption.

User equipment determines E-TFC for scheduling information using power backoff values from active macro cells.

Network node communicates beam ordering to user equipment, reducing power consumption by eliminating simultaneous multi-beam monitoring.

A vehicle locating unit establishes simultaneous wireless connections with multiple peripheral devices using discrete timing information.

Interrupt detector supplies power at intervals to reduce consumption while maintaining synchronization reliability.

A terminal selects the larger downlink subframe count between two cells to determine uplink control channel transmission power.

Dynamic power boosting selection across CDM groups improves channel estimation accuracy and reduces energy waste in MIMO systems.

Terminal devices allocate transmit power to first data based on configuration information, reducing transmission collisions in high-density V2X scenarios.

Separate reference and auxiliary CSI processes measure interference and channel quality to resolve the trade-off between network capacity and system complexity.

Segmenting uplink subframes by interference level enables dynamic power adjustment to maintain SINR requirements.

A wireless communication apparatus redistributes power among network terminals to maintain stable operation across the system.

A terminal configures multiple independent DRX parameter sets to manage power states across diverse service requirements.

A terminal switches between dormant and active periods using network-indicated patterns to align with data transmission needs.

Automatic cell status monitoring adjusts base station coverage areas to compensate for disabled cells without manual intervention.

A color changing layer within the front screen switches between transparent and target states to maintain housing color matching.

An access node offloads low battery user equipment to neighboring cells.

An access node classifies wireless devices by power headroom and applies an offset scheduling factor to balance network load against throughput.

User equipment transmits beam recovery requests during active Discontinuous Reception periods, reducing power consumption caused by unnecessary overhead.

Discontinuous transmission schedules voice frames within partial time intervals to lower device energy drain.

A satellite system controller schedules periodic sleep cycles to reduce receiver power consumption.

A terminal filters unwanted broadcast messages before operating system startup to conserve energy.

A wireless communication device selects a configured measurement report type based on downlink reception or uplink transmission timing parameters.

A portable transmitter sends a unique wake-up message to activate a vehicle information system via a wireless interface.

Segmenting beacon intervals into time slices schedules station wakeups, eliminating unpredictable awake periods and reducing power consumption.

Periodic start of frame delimiter detection reduces average power consumption in wireless sensor nodes while maintaining reliable wake-up signal reception.

A wake up signal transmission method for NR-light systems uses base sequences mapped to specific frequency-time resources.

Staged wake-up reduces sleep transition latency and power consumption without complex hardware.

Adaptive cell power coordination manages small cell transmitter states based on real-time traffic load thresholds.

Unified TCI states configure uplink beam directions for PUSCH and SRS, reducing control information overhead in millimeter wave networks.

A user equipment skips uplink control element transmissions during semi-persistent scheduling periods when its data buffer is empty.

A user equipment deactivates a secondary cell radio frequency chain during inactive periods to conserve power.

Adaptive amplifier control reduces spectral regrowth and power consumption while maintaining coverage.

Tracking reference signal configurations enable timing and frequency error estimation during RRC inactive states.

A communication network architecture dynamically adjusts transmit power levels across mobile and static nodes to maintain stable connectivity.

A user equipment configures transmit power across component carriers for simultaneous device-to-device and cellular communication.

A paging signal transmission method directs terminal devices to detect status via dedicated parameters.

A coexistence manager coordinates LTE uplink slots with WLAN operations to prevent in-device interference between radio access technologies.

A mobile communication device schedules autonomous gaps based on timing information to acquire system information from target cells.

Superimposing control and data signals on a single sub-carrier with distinct power levels.

Gateway sends supplementary broadcast frames to mobile terminals, reducing reconnection latency and power consumption during network switching.

Terminal selects candidate sidelink resources using per-antenna channel measurements to resolve signal quality deterioration from uniform resource pools.

A terminal calculates cell selection reception levels using multiple PMAX parameters to manage uplink transmission power in 5G networks.

Selective subcarrier processing reduces power consumption in OFDM receivers by excluding low-quality carriers from decoding.

Predicting user equipment arrival allows a network node to adjust power management timing, reducing base station energy consumption.

A transceiver system switches between intermittent and uninterrupted modes to manage energy usage based on communication patterns.

A low-power wake-up radio detects frames to activate a main transceiver only when needed.