Power Management TRIZ Cases

A base station transmits combined RRC and NAS control signals to a mobile station during state transitions.

User equipment evaluates power management maximum power reduction for candidate beams to adjust the uplink beam selection set.

A base station transmits wakeup signals with pre-configured connection information to wireless terminals.

A power adjusting module adjusts wearable device antenna transmission power based on detected wearing mode.

A user equipment configures power saving states based on physical downlink control channel indications.

A sidelink node determines transmit power for feedback channels based on signal priority and pathloss measurements.

A data speed switching scheme uses distinct coding schemes to manage receiver hardware settings.

Adaptive averaging resets measurement states when network entities change transmit power levels, maintaining accuracy while supporting energy savings.

An intermediate device receives wake-up commands and detects reflected energy from passive sensors to generate transmission reports.

Segmented search spaces with distinct periodicities reduce PDCCH collision probability and UE power consumption without expanding bandwidth requirements.

User equipment measures beam energy to detect empty symbols, skipping control channel demodulation and decoding to reduce power consumption.

Nodes adjust transmit power via signal-to-noise ratio feedback, reducing interference and power consumption while maintaining node accessibility.

A UE selects high priority PSFCH transmissions based on available transmit power capacity.

A wireless device cell selection process adjusts measurement time periods using a scaling factor to manage paging windows.

Terminal sends capability notification to base station, reducing radio resource consumption from inappropriate information distribution.

A terminal transmits separate generic channel state information for desired signal power and interference signal power to enable accurate data reception.

A network node signals a discovery signal window pattern to terminal devices for efficient measurement.

A wearable device uses a parameter collector and processor to determine running modes for associated electronics based on collected data.

Segmenting tasks between high-power and low-power processors reduces battery drain by minimizing awake time of the main application processor.

A terminal scheduler consolidates queued data packets into single bundles based on queue time and buffer size thresholds.

Timed synchronization windows enable a radio receiver to detect transmissions and shut down early, reducing power consumption in TDMA slots.

A downlink multi-user extension physical layer protocol data unit combines non-high-efficiency and high-efficiency frames.

A tracking device combines GPS, GSM, Wi-Fi, and RFID modules to determine location across diverse environments.

An AI/ML model predicts random access success to adapt transmission parameters.

Base station allocates wireless medium resources within selected frequency sub-bands to client stations.

UE monitors group-transmit power control DCI to adjust transmit power, reducing retransmission likelihood.

A base station determines minimum transmission power for paired user terminals using successive interference cancellation.

A terminal device determines transmit power for transmission layers using separate or joint power control methods based on SRI and TCI states.

A wireless terminal determines maximum power reduction using convolution-based spectral overlap maps to adjust transmit levels.

A user equipment requests a specific operation state from a network entity to manage power levels.

An electric power control apparatus accumulates detected battery temperatures to reduce power supply when thresholds are exceeded.

Targeted wakeup frames reduce battery consumption by preventing mode mismatches between access points and stations.

Central node calculates active antenna counts to maximize energy efficiency while avoiding time-consuming brute-force searches.

Prioritizing PSFCH transmissions across multiple carriers based on UE capability and total power limits to maintain reliability in sidelink communications.

A connected subscriber identification module transmits data for a non-connected module in multi-SIM terminals.

An active intermediary device bridges the gap between base stations and distant sensor nodes, extending wake-up range while reducing energy consumption.

NOMA-HARQ multiplexes new packets with retransmissions on shared resources, reducing latency and power consumption while maintaining reliability.

A User Equipment determines implicit Physical Uplink Control Channel resources based on System Information Block configurations to transmit HARQ-ACK feedback.

Network-mediated search signal activation enables direct device-to-device communication between user terminals.

Imaging devices synthesize a 3D map to correlate user presence with network nodes, eliminating energy waste during idle periods.

A mobile device adjusts its display settings upon detecting a wireless connection to an external monitor.

A Bluetooth device disconnects from a gateway and sends periodic broadcast packets to reduce power consumption while maintaining discoverability.

Wireless systems mitigate cross-device interference by dynamically adjusting transmission power and data rates based on real-time channel conditions.

A two-part wake-up signal embeds cell-specific synchronization data in its first segment to detect terminals efficiently.

A transceiver detects control signals to dynamically switch energy-sustaining small cell base stations between sleep and active modes.

A User Equipment configures sidelink discontinuous reception cycles to optimize power consumption during groupcast communication.

Portable device updates data communication settings based on received MCC and MNC information to resolve operator inconsistencies and reduce power consumption.

Defining allowed interruption durations and switching delays resolves compatibility issues in dual connectivity modes by ensuring seamless transitions.

Neural network classifiers integrate proximity, acceleration, and light data to resolve detection inaccuracies in moving vehicles.

Terminal sets time periods for transmit power control commands to adjust physical uplink shared channel transmissions.