Power Management TRIZ Cases

A mobile station monitors channel conditions during sleep mode to conserve battery energy.

Broadcasting Low Duty Cycle patterns with specific active intervals reduces femtocell interference while enabling efficient mobile station scanning.

Base station configures wireless station mode transitions using predetermined timing, reducing control signal overhead during frequent short data transmissions.

Clock generation circuit synchronously changes output frequency and phase using mutually exclusive pulses to prevent glitches during transitions.

An envoy device establishes proximity links and transfers authentication keys for secure transactions.

A reconfigurable intelligent surface receives control information via paging messages to configure reflective panels without full connection establishment.

A base station transmits independent transmit power control information using predefined radio resources.

Access point transmits an end of data frame to resolve power save mode uncertainty and optimize network throughput.

Segmenting system information into periodic and on-demand types reduces base station power consumption while maintaining reliable data delivery.

Aligning discontinuous reception cycles eliminates gateway buffering and minimizes transmission latency during multicast broadcasts in IoT networks.

Segmenting beacons into essential and feature parts conserves non-AP station power while maintaining backward compatibility.

Segmented power saving windows adjust cell switching thresholds based on traffic load to reduce energy waste while maintaining quality of service.

A transmission power control unit adjusts PUCCH and PUSCH parameters based on received DCI formats.

An optical light circuit replaces mechanical magnet activation, enabling remote radio wake-up and eliminating technician safety risks near energized conductors.

A first terminal determines a target communication period based on configuration information to enable direct device-to-device interface transmission.

A BLE device adjusts its listening window size based on measured time differences between assumed and actual packet transmission times.

A femto base station switches its transmitter on only upon receiving a driving control message from an entering mobile station.

A universal automatic power control table scales field strength and load modulation data to adjust transmission configurations dynamically.

Independent Happy Bits per uplink carrier indicate available transmission power and buffer status, resolving feedback complexity versus measurement precision.

A user equipment device estimates frequency errors during LTE uplink transmission to adjust clock timing for synchronization beacon detection on a second radio access technology.

A wireless communication device receives broadcast measurement information from a base station to control terminal operations.

Segmenting detection and candidate beams reduces system complexity while improving reliability.

A reliability metric predicts code block success to disable forward error correction decoders and conserve receiver energy.

A power boosting indicator in downlink control information enables User Equipment to determine uplink transmission power levels efficiently.

Schedules synchronization near the window end to minimize wake-up time while maintaining reliability and reducing power consumption.

Segmenting the receiver into a low power monitor and an intermittent main unit reduces energy consumption while maintaining packet reception reliability.

A terminal determines PRACH enhanced transmission parameters based on repetition level information to adjust transmit power accurately.

A base station adjusts target signal-to-interference ratios to stabilize terminal transmission power during state transitions.

A wireless terminal reconfigures Discontinuous Reception settings to manage in-device coexistence interference between active communication bands.

Dark-colored edging around the camera opening absorbs flash light, reducing glare in images and extending battery life.

Parallel shunt PIN diodes distribute thermal energy to protect components from hostile RF environments while maintaining VSWR match.

A mobile station employs switching diversity through beam forming, frequency hopping, and power ramping to enhance random access channel burst detection.

Classifying subframes into sets allows configuring distinct power control parameters that adapt transmission settings to varying interference levels.

Grouping stations in PSMP frames reduces scheduling overhead while maintaining quality of service.

A wireless group owner adjusts beacon transmission intervals to switch between active and low power states based on client association status.

Remote units transmit preference indications to network devices for allocating vehicle-to-everything resources across multiple radio access technologies.

A User Equipment stops multicast DRX timers upon receiving a MAC Control Element to reduce power consumption.

A receiver rotates captured data blocks to align headers, enabling efficient short-range communication without precise timing synchronization.

User equipment excludes overlapping physical uplink shared channels from multiplexing operations to preserve uplink control information integrity.

A wireless network dynamically adjusts reference signal power levels based on device counts and interference conditions.

Per-beam signal quality measurement generates customized uplink power control parameters, reducing interference deviation and improving transmission rates.

A control method activates a connection component to switch target functional components from inactivated states.

Linear interpolation between stored data points determines required input power for RF transmission, reducing calibration time and storage requirements.

A sender estimates signal attenuation to determine transmitting power for multiplexed wireless frames.

A communication device coordinates transmissions across multiple radio technologies using a dedicated traffic scheduler to prevent signal overlap.

Network node establishes path loss differences based on minimum TRP distances to set target power levels.

Segmenting the transceiver into zero-energy and powered units resolves the energy-latency tradeoff in duty cycling by enabling rapid network activation.

A mobile terminal antenna system switches communication to the upper antenna and reduces its RF transmitting power based on real-time signal strength comparisons.

A wireless transmit receive unit configures triggers to disable discontinuous reception during cell reselection.