Power Management TRIZ Cases

A terminal transmits UE Capability information using a stratified Cumulative Distribution Function for Spherical Coverage Equivalent Isotropic Radiated Power.

A terminal control method detects screen-off states to stop background applications and disconnect networks, reducing standby power consumption.

A communication device determines downlink wireless resources using a pseudo-random number generator based on terminal identifiers and time information.

A multi-dimensional addressing scheme segments active RFID tags into groups to optimize communication efficiency and power consumption.

A power management method sets target battery life to automatically activate saving functionalities.

A serial interference cancellation method estimates target cell channel responses after removing dominant interferers to reduce computational load.

Assigning distinct timer durations to frequency bands reduces battery consumption while ensuring timely paging message reception.

A beamforming system adjusts signal weights based on user device locations to enable full-power broadcast modes.

A processor trains a learning model to determine traffic off thresholds for network cells based on real-time data.

A temporary primary channel allocates trigger-enabled target wake time service periods to manage wireless resource distribution.

Processor dynamically adjusts operation power, clock rate, and diversity module state during inactive communication periods to minimize energy consumption.

Wireless sensor modules exchange received signal data with a server to update timing profiles, reducing power consumption while maintaining data integrity.

Prioritizing Power Headroom Reporting over sidelink Buffer Status Reporting in MAC PDUs prevents transmission delays from inefficient resource allocation.

Base equipment adjusts antenna gains to compensate for cable losses across varying frequency bands.

A communication device uses a dedicated unit to detect specific port access while the main control unit remains in a low-power standby state.

Aerial user equipment adapts uplink transmit power using configurable fractional pathloss compensation factors selected based on flight status.

Allocating non-overlapping resources from a second component carrier to extend the downlink shared channel, minimizing interference with control regions.

A wireless device determines available search time excluding paging periods to perform cell acquisition without interruption.

A communication tower adjusts idle state detection timers based on learned device transition patterns to minimize unnecessary signaling overhead.

A network device receives distinct power configuration parameters for separate antenna port groups to determine individual data signal powers.

A common uplink burst transmits control signals in every TDD sub-frame to reduce latency.

Cascaded primary and secondary RFICs compensate variable path delays to ensure synchronized operations across distributed antenna elements.

An access point acts as a proxy to announce service availability, reducing power consumption while maintaining fast discovery speed.

A wireless communication device determines transmission streams using diversity order calculations.

A broadcast control apparatus buffers and stops sending broadcasts to background applications.

Aggregated roaming priority list directs accessory device network selection, reducing power consumption from excessive scanning and registration attempts.

A modular mobile device base unit connects removable functional modules via standardized power and data networks.

A qualification service estimates 5G access conditions by calculating path loss using 4G signal measurements.

A wireless device adjusts its transmission power using region information from a central configuration device.

A power control method adjusts transmission levels using path gain statistics to optimize home base station performance.

A numerical factor adjusts estimated SIR values based on channel estimates and combining weights to improve transmit power control accuracy.

Base stations calculate transmission power parameters from received signal attenuation values to adapt user equipment output levels.

Segmenting audio processing into a dedicated low power unit maintains location reliability during standby without draining battery life.

Targeted unicast links replace continuous broadcast listening to conserve power and reduce latency in crowded BLE mesh environments.

Dynamic power control restricts CDMA resources over fixed time periods, reducing RF EMF compliance boundaries while preserving network capacity.

A dynamically reconfigurable radio air interface switches between RSMA and OFDM modes to support mesh and wide area network communication.

Configuring pathloss reference signals for PUCCH and SRS transmissions enables accurate uplink power determination, reducing interference to other cells.

Controller adjusts display brightness levels based on user selection, reducing power consumption from unnecessary illumination of inactive screens.

Processing unit estimates radio conditions to determine energy savings from offloading communications devices between wireless network cells.

Dynamic resource pools with configurable subcarrier spacing optimize wireless communication flexibility.

User equipment requests channel measurement resources to update maximum power reduction tables and transmit accurate power headroom reports.

A wireless base station pilot signal transmission control unit stops or reduces pilot power during high traffic periods.

A user equipment limits maximum transmission power to minimize spurious emissions in uplink signals.

Jointly adjusting power across multiple transmit paths prevents saturation and thermal instability while maintaining the target output level.

Terminal devices monitor DCI based on network configuration to optimize cell DTX DRX activation and balance energy saving with quality of service.

Separate RSRP calculations resolve the contradiction between measurement precision and transmission efficiency by optimizing uplink power control.

A processor limits positioning-satellite-signal receiver operations based on external power feeding conditions to optimize energy usage.

A base station entity activates service channels through a cross-radio access technology link, reducing activation time and power consumption.