Power Management TRIZ Cases

Preconfigured search space groups let terminals switch PDCCH monitoring parameters with lower signaling overhead and less delay.

A mobile gateway collects packets from remote LPWAN end nodes and relays them through a connected receiver, avoiding extra fixed gateways.

A terminal monitors a second channel only after first-channel detection, cutting NR control overhead, complexity, and power use.

Buffered downlink frames are signaled across multiple links so stations receive data on selected bands with higher throughput and lower delay.

A dual-mode UE cuts idle paging power by monitoring LTE or NB-IoT for 5G network paging, avoiding core-network context transfer.

Partial sensing and traffic-aware candidate selection cut NR sidelink power use for VRUs while reducing PSCCH and PSSCH collisions.

Unified control signaling synchronizes uplink reference signal beam and power updates to cut interference in multi-antenna 5G transmission.

Dynamic P-MPR feedback lets base stations limit terminal uplink power to reduce radiation risk without sacrificing coverage or link reliability.

Dynamic emission protection and message scheduling reduce nearby-band interference while preserving timely safety message reception.

Multiple sensors detect on-body or off-body use so wireless power can adapt to meet SAR/PD limits without unnecessary performance loss.

Micro-sleep DRX, narrow BWP monitoring, and SCell dormancy cut UE power use while preserving NR grant reception reliability.

Coordinated TWT schedules separate AP and peer WLAN traffic into non-overlapping periods to cut interference, latency, and AR judder.

Retransmission grants that fall in DRX inactive periods are ignored or reselected so sidelink data is sent only when the receiver is active.

Scheduled restricted TWT service periods cut WLAN latency and power use for artificial reality traffic such as rendering and sensor data.

Motion prediction powers only needed access-point transceivers, cutting energy use and interference while preserving indoor wireless service.

PDCCH-triggered random access updates counters across repeated candidate-cell attempts to improve mobility handling and resource use.

Dynamic active BWP switching based on traffic patterns and buffer status cuts energy use while sustaining wireless signaling in NES mode.

Reserved synchronization resources and capped transmit power stabilize sidelink transmission in unlicensed spectrum and reduce interruptions.

Power-saving signals let an NR terminal end inactivity timing early, reduce PDCCH monitoring, and fall back to lower-power states.

Power-headroom-based carrier activation keeps uplink modulation order higher by using fewer component carriers when UE transmit power is limited.

Coordinated restricted TWT scheduling lets multi-link Wi-Fi stations end TXOPs before another AP service period, reducing BSS interference.

LP-WUS lets a UE wake for PDCCH outside C-DRX active times, cutting power use and latency while adding scheduling opportunities.

Varying slot-level power and subcarrier spacing helps NR sidelink reduce LTE co-channel interference while keeping control and shared channels stable.

A modem uses routine and protective DVFM tracks to raise wireless performance when bottlenecks appear without wasting battery power.

ML-based UE trajectory prediction targets likely cells and DUs, reducing idle-state paging delay, interference, and energy use.

Predetermined sidelink DRX during unicast setup aligns peer UE active times, cutting unnecessary power use without losing communication reliability.

Dynamic RF link monitoring adjusts power and band bypass to cut signal booster heat, noise floor interference, and energy use.

Dynamic CSI-RS power offset updates let a WTRU keep CSI reporting accurate while cutting signaling overhead in variable-power networks.

Spatial RF exposure contributions across antennas enable time-averaged power limits that preserve compliance while improving wireless throughput and range.

Dynamic power sharing across wireless radios improves uplink throughput while keeping SAR and MPE exposure limits compliant.

Shared time information in multi-link beacon signals lets terminals align wake-up timing, cutting power use without losing link reliability.

Distributed motion sensors and a central hub track patient location and activity at home while enabling voice assistance without intrusive monitoring.

Periodic bundled RS lets a wireless device report whether it can sustain transmit power for the next occasion, improving 5G efficiency.

A terminal reports supported additional spectrum emission requirements so the network can configure accessible cells and avoid access failures.

A token-based wakeup path lets UE stay in power-saving mode while preserving secure, privacy-aware cellular notification delivery.

Predicted packet timing aligns multiple app flows so wireless devices can sleep longer while meeting low-latency AR/VR demands.

Sensor-based antenna group control cuts transmit power only near the body, meeting SAR limits without unnecessary call quality loss.

Nearby devices exchange channel and signal-strength data so Bluetooth links can adapt power or channels to reduce interference in congested radio environments.

Triggered P2P transmit power is tied to AP link conditions to limit access point interference while preserving uplink throughput.

A trigger frame carrying BSS and station IDs enables multi-AP uplink coordination without global identifier uniqueness, improving efficiency.

Terminals request on-demand SIB1 from a configured resource, cutting idle cell broadcasts and enabling more network sleep time.

Adaptive WiFi power, bandwidth, and MCS changes limit adjacent and overlapping UWB interference while preserving reliable data links.

Packets are grouped by delay needs and buffered so satellite HPAs switch on only when needed, cutting 5G NTN power use without harming QoS.

By superimposing a low-rate wake-up signal on OFDM, UEs can detect paging in real time while reducing idle-state power consumption.

Two-level wake-up signals subgroup terminals so idle or inactive devices monitor paging only when indicated, cutting power use and false alarms.

A first frame announces AP TXOP sleep so legacy STAs stay silent and supporting STAs continue operation without packet loss.

A line-coded LP-WUS lets a low-power receiver monitor NR channels and wake the main radio only when needed, cutting idle-state power use.

Advancing paging before WUS-based reception decisions helps eDRX terminals avoid missed incoming-call notifications while preserving power savings.

SIM-based timing lets user equipment limit network reselection on non-terrestrial links, reducing battery drain without missing higher priority access.

Adjustable downlink monitoring masks let UEs switch reception cycles to balance signal accuracy, resource use, and power consumption.