Power Management TRIZ Cases

A dual mode communication device alternates between broadband and narrowband interfaces to maintain connectivity status while reducing power consumption.

A user equipment manages small data transmission configurations by releasing or retaining them based on radio access network messages.

User equipment transmits zero channel quality indicator values to deactivate secondary serving cells.

A controller generates individual transmit power control commands for each uplink carrier in multicarrier wireless systems.

A user equipment manages uplink power by configuring timing advance groups and performing resource mapping to prevent symbol collisions.

Dynamic time slot allocation prevents paging signal collisions while maintaining data throughput for connected mode subscribers.

A WTRU manages transmit power across multiple component carriers using independent channel adjustments.

A partial user equipment control method segments base station and device functions to optimize D2D resource management.

A base station dynamically switches data carriers on or off based on terminal location to optimize network energy use.

A pilot switch shunt branch grounds the injection node of a MEMS switch to attenuate power entering the common port.

A transmitting device generates dummy RTP packets to maintain continuous user plane traffic during inactive states.

Dynamic power gating and clock gating reduce energy consumption while maintaining positioning capability.

Dynamic margin adjustment and segmented receivers minimize power consumption while maintaining data reception reliability.

A method computes average spectral efficiency from signal power and interference measurements to determine optimal transmission power levels for user equipment devices.

Geographic-positioning devices adjust processor duty cycles based on user affinity scores, reducing unnecessary active states and conserving battery power.

User equipment selects a power control parameter group from a base station set to calculate transmit power.

Spatial orthogonal transmit diversity uses multiple antennas to send control information.

Adjusts Time-to-Trigger values based on discontinuous reception cycles to resolve trade-offs between power saving and handover reliability.

A mobile terminal power management module identifies SIM cards by incrementally applying reference voltages to match operating requirements.

A serving network device retrieves user equipment context from a core network to process inactive state service requests.

A radio signal preamble includes a power limitation bit to indicate station status.

Dynamic switching between normal and reduced power modes minimizes performance loss from wake-up delays while maintaining data reception reliability.

A wireless terminal control module dynamically extends wake-up periods upon detecting network changes to ensure complete data reception.

A setting device adjusts address request transmission power to control the number of responding luminaires for efficient wireless pairing.

An interleaved analog-to-digital converter uses multiple sub-ADCs to reduce idle listening power consumption in large bandwidth wireless LAN systems.

Individual transmission power control parameters resolve channel estimation accuracy issues when normal and shortened TTIs operate together.

User equipment configures adaptive measurement parameters based on mobility state to optimize signal monitoring.

A relay user equipment assigns transmission power based on target receiver priority and pathloss to maintain consistent received signal levels.

A wireless power delivery system adjusts transmission parameters to optimize energy transfer.

A user equipment adjusts uplink transmit power across component carriers by decoding control commands and comparing them against configured maximum limits.

A wireless station computes future transmission times to align power cycles with control message intervals.

Interference-aware power control adjusts transmission levels across antenna panels to minimize uplink interference and prevent receiver saturation.

Terminal device adjusts working bandwidth based on data volume to reduce unnecessary power consumption during radio frequency cycles.

Per-carrier DRX configuration limits PDCCH monitoring scope, reducing battery consumption while maintaining system flexibility.

A method embeds buffer status and power headroom data into random access messages.

Dynamic bandwidth part switching and search space configuration reduce user equipment power consumption while maintaining high data rates.

A user equipment detects device-to-device signals to determine frequencies and times for scanning.

A receiving device compares packet information with previously received packets to identify retransmissions.

A dual-mode Bluetooth module monitors interrupt request signals to switch between BLE and BR/EDR protocols.

A transceiver estimates current transmission effort using received signals to initiate data transfer.

Mobile devices skip paging occasions during stationary periods to reduce idle mode power consumption while maintaining reliable connectivity.

Duty-cycled operation with periodic check-in messages extends battery life while maintaining timely event reporting.

A base station configures a higher layer filter coefficient via RRC signaling to enable NB-IoT devices to calculate filtered received power.

Access point adjusts transmission power using station feedback to reduce energy consumption and minimize interference.

A network searching method manages search intervals to conserve battery power in mobile electronic devices.

A terminal applies differentiated measurement parameters to dedicated frequencies, reducing signal processing load.

User equipment maps a power control calibration region to an uplink symbol for dynamic transmit power adjustment.

Antenna module calculates distance via signal phase to reduce power and ensure MPE compliance.

A control network node manages radio resources by receiving performance indications from nodes and triggering dynamic adjustments.