Power Management TRIZ Cases

User equipment adjusts uplink transmission power using proximity sensor data and duty cycle ratios to manage radiofrequency energy levels.

This approach segments time slots by spatial location to reduce inter-cell interference while maintaining high spectrum efficiency and communication rates.

A dynamic discontinuous reception configuration adapts sleep cycles based on user proximity to balance data access speed and battery conservation.

A shared control resource set configuration unifies wake-up signal and physical downlink control channel monitoring within a single structure.

Terminal auto-enables Bluetooth to scan and match router identifiers, eliminating manual user intervention during WiFi wake-up.

Mesh wireless network scan mode resolves signal interference in obstructed industrial environments by enabling secure, coordinator-free device joining.

Base station allocates uplink resources based on subscriber status to maintain higher transmission power levels.

A reception device uses a demultiplexer to separate noise signals from sub-signals for accurate interference removal.

A modem scan management system adjusts scanning frequency based on device movement state to conserve power.

A PDCCH order specifies cell IDs and SS/PBCH block indices to configure PRACH transmissions.

An in-network analyzer processes collected device data to identify misconfigurations and suggest corrective actions without manual intervention.

A terminal adjusts discontinuous reception parameters to conserve energy in mobile networks.

Schedules distinct mobile stations across multiple fixed beams to transmit concurrent channels, increasing system throughput while minimizing interference.

Mobile station transmits channel quality information reports during power control interruptions to support base station parameter selection.

Base station calculates precise radio subframes for user equipment long discontinuous reception cycles using high-speed downlink shared channel identifiers.

Physical layer DCI messages indicate cell on-off states, replacing slow higher-layer signaling to reduce transition latency and boost throughput.

User equipment reports location data only after detecting secondary cell group failure to minimize transmission overhead.

Base station adapts broadcast transmission parameters based on user channel quality feedback to reduce network resource utilization and interference.

Wireless devices coordinate wake-up times via synchronization groups to reduce network traffic, interference, and paging delays.

Periodic transmission windows allow battery-powered devices to join networks and relay data while minimizing energy consumption during migration.

Consolidating paging occasions into a single monitoring schedule reduces idle mode power consumption by eliminating redundant signaling procedures.

A receiver uses an artificial neural network to predict and select the least complex demodulator parameters for each data block.

Target wake time duty cycle operation reduces power consumption by keeping the transceiver in sleep mode until a scheduled access point notification arrives.

Synchronizing sidelink and Uu link DRX cycles eliminates independent timing delays while reducing power consumption.

A network server converts broadcast messages to unicast signals for mobile devices.

Terminal devices measure resource set qualities using RSSI and CBR metrics against thresholds to select transmission modes, resolving conflicts in V2X networks.

A thermal mitigation user experience prompts interaction to manage application states and reduce heat generation in computing devices.

Network management apparatuses identify coverage holes by analyzing inter-RAT handover reports, preventing radio link failures in dense deployments.

Segmenting uplink transmit power between primary and secondary cells resolves insufficient power constraints in dual connectivity networks.

A context change detector triggers a classifier to switch power modes, reducing energy consumption by activating complex algorithms only when necessary.

Processor retrieves notification configuration from secure element to retry transmissions based on failure responses, reducing power waste.

A support member stabilizes a metal sheet reference electrode to maintain accurate capacitance measurements for proximity sensing.

A directional D2D communication method acquires pilot channel resource information to transmit data signals based on received pilot signal states.

Aligning channel quality indicator reports with active periods reduces unnecessary wake-ups and improves power consumption during sleep cycles.

A user equipment device detects unsafe uplink beam conditions based on maximum permissible exposure levels and performs remedial actions.

An adaptive dormancy timer adjusts connection states based on signal classification to manage user device resources in LTE networks.

User equipment identifies a reference component carrier to determine maximum transmit power limits across multiple carriers.

A user equipment adjusts search, measurement, and loop tracking periodicities based on mobility state.

A redundant antenna array shares a common power supply with a primary array to enable dynamic power reallocation for backup coverage.

A data transmission method segments frames into high-power preambles and low-power MAC frames to manage network allocation vectors.

A wireless flame detector switches between low-power monitoring and full detection processing using UV and IR sensors.

Selective beacon transmission reduces payload size and interval duration, lowering power consumption while preserving bandwidth availability.

A mobile terminal uses an acceleration sensor to detect location state changes and manages a stabilization timer for automatic unlocking.

Merging multiple application alarm times into synchronized transmission events reduces power consumption from frequent idle-active mode transitions.

A dynamic overhead channel power allocation scheme adjusts pilot and paging channel power based on traffic load measurements.

A portable terminal displays application indicators in sleep mode to enable rapid function access.

Machine learning models map nominal uplink power levels to signal quality, adjusting clusters to resolve interference and coverage trade-offs.