Power Management TRIZ Cases

A grant free state enables user equipment to transmit data without explicit resource allocation requests.

A V2X communication method adjusts modulation coding tables and sidelink synchronization signal timing to support higher data rates.

A communication node manages radio bearer states in RRC inactive mode by suspending or maintaining bearers based on condition sets.

Handset switching unit interrupts power supply to wireless communication units, reducing standby energy consumption and extending battery life.

Network nodes send wake-up messages to sensor nodes during inactive periods, reducing data transmission delay and ensuring synchronization.

A self-calibrating transceiver adjusts transmitter output power using a calibration control state machine.

A user equipment configures self-learning to predict grant reception windows, limiting active processing time within a connected discontinuous reception cycle.

An unsupervised transfer deep reinforcement learning framework selects energy-saving control policies for target base stations.

Splitting telegrams into shorter packets reduces overhead and improves spectral efficiency for machine-to-machine communication.

A mobile electronic device identifies abnormal network packets and re-derives its IP address to minimize unnecessary reception.

A user equipment transmits unused transmission occasion uplink control information to indicate skipped configured grant occasions.

Filters automatic gain control artifacts from time-of-flight data by classifying signal strength and discarding delayed measurements.

A radio base station counts handover numbers to and from a cell over a predetermined period to notify an OAM apparatus.

A transmit power manager adjusts radio output using back-side proximity sensors to detect human body parts near the antenna.

Base station calculates spectral radius of requested SINR matrix to determine service availability for multiple users.

A WLAN communication method establishes a direct link between stations to relay data frames through an intermediary node.

Segments uplink power control into separate guaranteed values for MCG and SCG to resolve capacity versus flexibility trade-offs.

Access point selects relay stations based on energy levels and time windows to balance power consumption across wireless networks.

Stationary user equipment skips redundant radio resource management measurements based on base station criteria, reducing unnecessary energy consumption.

Dynamic keep alive interval adjustment reduces power consumption while maintaining network availability.

Radio remote unit temperature detection closes radio frequency channels when thermal thresholds are exceeded to prevent component damage.

A dual transceiver terminal exchanges frequency occupancy notifications to pause LTE signal detection during active WiFi transmissions.

User equipment calculates output power thresholds per antenna panel or beam identifier to manage transmission levels.

Fractional time reuse segments timeslots to mitigate interference, while dynamic power profiles adjust transmit levels based on feedback.

A communication system modifies bitstream symbols before transmission to optimize power metrics.

Hybrid open and closed loop algorithms reduce power control cushion, increasing system capacity.

A network device transmits synchronization signal block type information to terminals for targeted measurement.

Sending an excitation signal transitions a slave device from sleep to active state, reducing power consumption caused by unnecessary listening.

Mobile devices report measured power offsets to update base station parameters, reducing initial access time and interference.

A scheduled power-saving method synchronizes service connections by matching sleep intervals to extend the unavailable state of a mobile station.

A carrier aggregation method segments control information across broadcast channels and system information blocks to manage component carriers.

A base station configures MIMO layers per TRP to reduce device power consumption.

Segmenting LTE sampling points reduces correlation operations and power consumption while maintaining detection reliability.

Beam sweeping UE-specific reference signals conveys data availability, reducing power consumption during millimeter wave wake-up procedures.

A wearable wireless personal server stores sensitive data and wirelessly couples with external display devices for portable access.

A wireless terminal controls physical downlink channel monitoring operations using signaling triggers and timers to manage reception states.

A wireless device predicts beacon intervals via location-based hash functions to tune antennas during specific time slots.

A wake-up receiver detects low-power signals to activate a main transceiver in wireless LAN nodes.

Node B schedules downlink data via real-time channel quality indicators, adapting transmission rates to fast wireless channel variations.

Active Antenna Unit energy saving adapts channel states through beam forming feedback to reduce consumption without degrading wireless connection quality.

Segmented low-latency control decoding allows proactive RF circuitry shutdown, reducing power consumption while maintaining data reception reliability.

User equipment determines and reports interference notifications to the cellular system based on acquired information.

A network device coordinates IoT reporting schedules to reduce signal loading and power consumption.

A multi-mode base station reduces synchronization signaling power during idle periods, lowering interference and conserving energy.

An access point establishes a power saving schedule in the basic service set to transition to low energy mode during designated unavailable periods.

A terminal selectively transmits power headroom information linked to specific analog beams using configurable parameters.

A user equipment saves unapplied transmit power control commands for later use.

A mobile device filters emergency alerts using GPS location data to conserve battery power during low-power scanning.