Power Management TRIZ Cases

WUR class indication lets network nodes match UE wake-up radio configurations to resource allocation and communication actions for better efficiency.

A low-power wake-up radio handles positioning and RF sensing during main-radio sleep, cutting power use and latency in multi-radio UE.

Dynamic UE power allocation shifts uplink headroom to a secondary NSA link when primary link conditions allow, improving throughput.

Grouped SRS resource sets extend antenna switching to terminals with more than four receiving antennas, improving channel information for beamforming.

Dedicated TWT service periods prioritize P2P links in WLANs, easing channel contention and interference while preserving network efficiency.

No-wake-up windows, inactivity timers, and grouped wake-up signaling cut false main radio wake-ups while preserving low-power wireless access.

A low-power wake-up module and grouped paging occasions cut unnecessary paging checks while preserving reliable message reception in 5G IoT terminals.

Multicast trigger schedules, wake windows, and error recovery improve asset tag battery life, tracking accuracy, and clock drift handling.

Independent wake-up receiver cycles let UEs monitor wake-up signals in non-connected mode with lower power use and low latency.

Configured frequency, cell, and SMTC timing data let LP-WUR measure neighboring cells accurately while keeping terminal energy use low.

Partial PDCCH monitoring occasions in each SI window let user equipment receive SI scheduling DCI while reducing power consumption.

Clarified PHR triggers for selectively activated MR-DC cell groups cut signaling overhead and support reliable uplink scheduling.

PUSCH-based contention resolution message repetition improves random access reliability through adaptive resource allocation and power control.

Pre-configured uplink resources let wireless devices send data in RRC_INACTIVE or RRC_IDLE, cutting signaling overhead and power use.

Periodic cell DTX/DRX and adaptive NCR or IAB node control cut base station energy use while preserving wireless communication availability.

Dynamic MTPL adjustment lets a UE share uplink power across concurrent carriers, preserving transmission reliability and aggregate throughput.

Adaptive Wi-Fi parameter switching lowers STA power use by matching bandwidth, streams, and MCS to traffic, channel state, and messaging performance.

A network node switches between strict and relaxed uplink RF requirements to extend coverage while limiting battery drain and interference.

A terminal cuts power use by switching between a wake-up receiver and main receiver while preserving reliable base-station reception.

Periodic beacon resets and shared cryptographic authorization keep accessories in near-owner mode while reducing battery drain and false alerts.

Different pathloss reference signals are mapped to SRS resource sets so each uplink repetition uses more accurate power control.

When PRACH retries fail on one uplink carrier, the WTRU switches carriers and derives RA-RNTI by offset to cut access latency.

A new Type-3A power headroom report lets UEs estimate additional SRS power on LAA SCells despite uncertain LBT channel access.

Accumulating sidelink TPC commands over a configured period improves UE transmit power adjustment accuracy while reducing interference.

Dynamic TWT service periods adapt to traffic patterns between AP and STA, cutting Wi-Fi power use without adding latency.

Specific TID scheduling across multilink TWT periods improves dense WLAN throughput while limiting channel contention and power use.

Periodic sidelink DRX lets wireless devices monitor paging resources in set windows, cutting power use while preserving direct-link reliability.

Residual self-interference and reception quality estimates guide transmit power control to maintain stable in-band full-duplex communication.

Leader/follower LL TWT scheduling aligns overlapping multi-link service periods in NSTR MLDs to avoid interference and meet low-latency deadlines.

Burst-interval energy comparison helps UWB receivers reject interference and wake only on valid wake-up signals.

A gateway adapts beacon signals to a second network protocol, cutting interference only when needed without adding receiver hardware.

Dynamic UE capability splitting by service category and band info helps dual-SIM active devices avoid RF conflicts, data loss, and QoS drops.

Combining ConfiguredGrantConfig and PUSCH-Config parameters keeps PUSCH retransmissions low-latency and reliable despite scheduling changes.

Dynamic sampling-rate and clock adjustment matches actual call audio, improving sound quality while cutting unnecessary current consumption.

Power-aware autoscaling adjusts edge node activation using battery and renewable energy status to cut energy use while maintaining SLAs.

Group-common DCI carries separate TPC commands for primary and secondary PUCCHs, improving uplink power control and reducing interference.

Preconfigured extension regions let a terminal set uplink transmit power from total allocated frequency resources, improving utilization.

Group-based PRACH priorities guide uplink power allocation to cut transmission conflicts, reduce random access delay, and extend coverage.

Adaptive SRS antenna-port power scaling uses PA limits, path loss, and resource allocation to avoid underused uplink transmission power.

Aligns terminal CDRX cycles with decimal XR service intervals to cut power waste and avoid downlink reception delay.

Updating sidelink DRX/DTX active time after SR or BSR keeps scheduled resources out of inactive periods and avoids waste.

A dual-receiver paging scheme cuts idle power by using an AZP receiver while triggering the main radio to avoid message loss outside coverage.

Compression point feedback guides power allocation in wireless links to limit power amplifier distortion and interference.