Power Management TRIZ Cases

A computer system predicts future thermal states using stored historical data to implement proactive remediations before devices reach critical thresholds.

A radio device uses a secondary clock unit to detect temperature and frequency deviations during sleep mode.

A network location scanning application uses geo-location data to adjust mobile device scanning frequency.

Segmented resource element muting enables accurate noise estimation without increasing system complexity or reducing resource utilization efficiency.

A capillary network gateway switches to a power-saving mode by associating with another gateway and disconnecting from the base station.

A remote antenna unit controller allocates available power to modules based on service priority levels.

Segmented channel estimation iteratively cancels interfering reference signals to resolve the trade-off between measurement precision and processing complexity.

A wireless station manages power states by overhearing different BSS frames after receiving an ACK from an access point.

Time domain merging of individual wake-up packets into a single composite signal increases spectrum efficiency by eliminating silent guard intervals.

Selecting a router based on power and modulation reduces access node load by consolidating independent resource requests.

A hybrid power source system adjusts duty cycles based on temperature and load conditions to optimize energy usage.

Base station sends release indications to user equipment, recycling idle preconfigured resources and reducing network overload.

Multiple slot formats in wireless control channels transmit data rate information, eliminating separate control channels and reducing system resource usage.

A terminal system determines target image display schemes based on current images and user operations to optimize visual effects.

A power control mode selector switches between open and closed loop modes to manage transmission signals.

Self-organizing network apparatus manages base station power states through real-time traffic monitoring.

Base station configures discontinuous reception parameters using user equipment feature information to improve power saving performance.

Dynamic access point state management balances reduced power consumption with maintained connectivity and service quality.

An adaptive transmitter control method minimizes RF activation through analog-to-digital and digital quantization schemes.

A brownout prediction-based throttling management system adjusts modem data throughput using voltage drop detection and thermal estimation.

A terminal control section determines uplink power parameters using received transmission configuration indication states.

A beamforming antenna system directs electromagnetic signals toward active users using multiple spatial beams with varying power levels.

A user terminal manages uplink signals across component carriers using base station timing information to coordinate transmissions.

A user equipment receives an in-band skipping indication via the physical downlink shared channel during a semi persistent scheduling occasion.

Dynamic uplink power control adjusts femto transmission to reduce interference with macro base stations.

A mobile station determines specific time resources for repeat transmission to receive downlink signals.

A processing unit switches receiver antenna diversity branches on or off based on power control information.

Altitude-based power control reduces interference to adjacent terminals while maintaining reliable data transmission.

A Bluetooth device control method manages sniff mode anchor points to minimize power consumption during operation.

A user equipment method filters power headroom reports using a time difference threshold between overlapping carrier slots.

Low-power wake-up signals enable on-demand paging, reducing network energy expenditure while maintaining reliable delivery.