Power Management TRIZ Cases

Structured PRS resource, sequence, slot, and symbol settings improve RSTD positioning accuracy while limiting signaling overhead.

Relaxed RLM parameters let UEs skip some radio link checks during DRX, cutting power use while preserving monitoring reliability.

By aligning positioning signal timing with DRX and paging cycles, this case cuts terminal wake-ups and power use while preserving positioning capability.

Configured pathloss offsets let a UE estimate UL loss to a micro TRP from macro DL signals, improving PHR triggering and random access power control.

Calibrating LP-SS against SSB metrics lets the LP-WUR offload mobility measurements while keeping the main radio in deep sleep.

Iterative precoding and decoding balance antenna power under amplifier constraints to cut interference and improve mMIMO coverage.

Carrier weights, DRX cycles, and frequency position guide NR paging selection to balance load, avoid bad carriers, and cut UE power use.

Beam power is raised or lowered by served-user thresholds, helping non-terrestrial networks balance QoS demands with power use.

Separate power settings for simultaneous uplink antenna panels improve TRP throughput while preserving panel-level control precision.

UE-reported bit volume, block size, power, and DRX data help gNBs schedule uplink traffic more efficiently and cut UE power use.

Separate spatial relations for SBFD and non-SBFD PUSCHs reduce reception errors and support reliable 5G uplink transmission.

Predictive time information lets NTN terminals switch states before satellite non-coverage, cutting power use without losing connectivity.

Periodic LP-WUR monitoring with sequence hopping cuts UE power use and interference while preserving low-power signal detection accuracy.

Adaptive conditional handover uses UE energy status to limit monitoring and preparation load while preserving timely handovers for low-power IoT devices.

Selective dropping of active speech frames adapts to erasure thresholds to save battery power and increase network capacity.

Short- and long-cycle PDCCH monitoring lets 5G terminals cut idle control-channel power use while preserving scheduling responsiveness.

Selective storage of uplink signal configuration cuts UE memory overhead for pathloss measurement while preserving wireless communication reliability.

Pre-reserving sidelink resources lets power-sensitive UEs sleep outside scheduled windows while maintaining reliable device-to-device communication.

MAC CE-based power reporting prepares candidate cells in advance, improving NR power control during waveform changes and fast cell switching.

Periodic LP-WUS monitoring lets UEs handle missed wake-up receptions while cutting reference-signal processing, power use, and latency.

A pre-paging wake-up signal lets the UE sleep through unscheduled paging occasions, cutting power use without missing intended pages.

Periodic LP-WUS monitoring with target UE identification cuts unnecessary signal processing, lowering power use while preserving low-latency wake-up.

DCI-driven PDCCH skipping and search space set switching cut DRX active-time monitoring and UE power use while preserving control detection.

Periodic scrambling code reinitialization randomizes inter-cell interference while preserving frequency offset estimation for repeated data block transmission.

Predicting UE trajectories lets network nodes disable unused beams and tune transmit power to cut base station energy use without harming mobility.

Preconfigured LP-WUS monitoring occasions and hopping intervals reduce 5G UE power use while limiting interference and preserving detection accuracy.

Network eDRX support signaling lets inactive terminals align CN and RAN paging checks to save power without missing messages.

Deriving fallback PRACH power from failed two-step RACH measurements improves four-step access success while cutting latency and UE power drain.

NF-driven cloud resource requests adjust CPU state, frequency, and memory timing to balance O-RAN service quality with energy saving.

A Bluetooth link plus DTLS encrypted channel lets IoT devices exchange configuration and user data securely without risky serial port maintenance.

API-based intermittent reception settings let base stations align terminal timing across networks, reducing delay fluctuation during synchronized data delivery.

Wakeup signaling carries cell identifiers during DRX so a UE can stay inactive or wake on the right cells with less signaling overhead.

UEs learn the RRC inactivity timer from zero-throughput periods and trigger earlier connection release to cut idle 5G power drain.

Adaptive telemetry intervals use external sensor activity to cut connection latency while reducing energy drain in implanted medical devices.

Traffic-aware temperature compensation adjusts radio downlink power more accurately under self-heating, helping maintain serving cell coverage.

Pre-switching to a synchronization-signal band before SCG deactivation preserves downlink sync and cuts re-activation delay.

A battery-powered NFC unit wakes the UWB radio through a voltage regulator, enabling low-energy startup even when the platform is off.

A terminal requests positioning assistance updates while staying in RRC inactive mode, cutting broadcast overhead and mode-switch latency.

Preconfigured PDCCH monitoring lets a UE send and receive subsequent data in RRC_INACTIVE, cutting state-transition latency and signaling overhead.

Adjusting UL-SRS parameters to current antenna panel configurations preserves uplink positioning accuracy when network nodes enter energy saving modes.

Reporting power headroom at reference signal resource set level resolves Type 3 mismatch and improves uplink power control accuracy.

BA-frame power state feedback lets a transmitting MLD target awake STAs across links, cutting unnecessary WLAN transmissions and power waste.

Customized DRX cycles in transmission suspension mode cut active-state terminal power use while preserving packet response and QoS handling.

Uplink access requests trigger scheduled service beams, cutting satellite power use while preserving timely and reliable data communication.

Different waveforms are assigned to shared NOMA user signals based on channel conditions and mobility to cut interference and improve separation.

Separate PRACH counting with and without timing offset pre-compensation improves uplink timing accuracy while limiting power ramping and interference.

Multiple APs compare backscattered signal levels from different radio chains to pinpoint BKD location and improve WiFi coexistence.

Dynamic power adjustment indicators for CSI-RS resources improve channel feedback quality while limiting signaling and power-control complexity.

Timing offset coordination lets a UE share uplink power between MCG and SCG, improving dual-connectivity reliability with manageable signaling.

Aligning RAR windows with DTX active periods cuts unnecessary UE monitoring, saving power while preserving random access response reception.

A wireless communication apparatus selects optimal transmission modes based on real-time battery state detection.

Terminal devices use wake-up signal parameters to identify specific time-frequency resources, avoiding unnecessary physical downlink control channel monitoring.

An access point embeds transmit power and receiver sensitivity into downlink packets to enable wireless stations to determine modulation and coding schemes autonomously.

A smart transceiver performs network functions on behalf of a microcontroller in low-power mode.

A power headroom report transmission method calculates uplink power metrics for supplementary carriers based on physical channel configurations.

Segmenting system information allows independent uplink power control updates via paging, reducing latency and minimizing performance degradation.

Multiplying received signals attenuates mutual coupling interference, enabling accurate range-based transmit power adjustment to comply with MPE safety limits.

Optical recognition identifies target devices to bypass server registration, enabling flexible group management.

Wearable devices reduce battery drain by blocking unnecessary alerts when the user is not wearing the device.

Transferring processing functions among battery-powered modules optimizes power usage and extends operational time for wireless communication devices.

Fabric-level power configurations optimize network energy consumption by coordinating individual node states through aggregated profile analysis.

Defines dedicated power offset parameters for PUCCH formats under channel selection and transmit diversity to resolve undefined power control scenarios.

A paging calculation formula distributes user equipment signals evenly across frames using IMSI bits and DRX periods.

A terminal adjusts signal transmission power based on detected working modes to optimize radio reception and transmission performance.

User equipment signals preferred RRC state to base station, cutting signaling overhead and power consumption during connection release.

A physical layer device enters a sleep schedule with active and inactive time slots to reduce power consumption.

Mobile devices transition to Doze state using timing information in communication frames and beacon signals.

A mesh network power control apparatus segments transmission signals into constant-power reference and variable-power data streams.

Dynamic power allocation for high-priority packets improves signal-to-noise ratio while maintaining average transmission power within regulatory limits.

An accessory device transmits electromagnetic signals to a mobile device antenna, inducing voltage to trigger camera events without active proximity circuitry.

Delaying non-essential network requests enables concurrent execution, reducing power consumption by up to 54% without affecting performance.

Wireless device delays paging area update requests to reduce power consumption and minimize ping pong effects at tracking area borders.

A dedicated processor acquires sensor data and provides cycle information to a secondary processor, reducing high-performance CPU load and power consumption.

Separate antenna diversity settings per carrier reduce power consumption while maintaining performance across multiple frequency bands.

Dynamic power control reduces battery waste by lowering transmission strength when devices are close, extending battery life.

Centralized unit coordinates distributed units via resource indication information to achieve synchronous transmission and improve cell edge reliability.

Coordinating transmission power between a blockaded base station and neighboring units prevents call disconnection and maintains coverage quality.

Target base stations measure these signals to determine optimal power correction, eliminating iterative random access ramping and reducing handover latency.

Base station groups sleep mode IDs and broadcasts traffic indication messages using segmented bitmap information for mobile stations.

A proximity sensor reduces power consumption by alternating between active and idle states based on modem activity.

An access point dynamically adjusts output power based on terminal distance to balance coverage area and interference with neighboring macro network cells.

A communication apparatus transitions between high and low power states to detect external services before network connection.

A communication method adjusts transmission power across multiple carriers based on service priority to maintain reliable data exchange.

Dynamic selection of known tail sequence lengths minimizes peak-to-average power ratio backoff and increases transmit power in high-frequency bands.

Differentiating station types enables non-TIM devices to ignore traffic maps and sleep longer, reducing power consumption.

A flight vehicle management apparatus assigns aircraft to airspaces based on communication quality parameters.

Access point synchronizes with secondary node and disables pilot signals to reduce power consumption and cell interference.

A non-AP MLD negotiates restricted target wake time schedules to protect latency-sensitive traffic across multiple links.

A User Equipment applies processing delays during active states to conserve battery energy.

A mobile station adjusts transmitted signal strength based on neighbor base station attenuation estimates to manage uplink interference levels.

Network device monitors inactive user equipment handover frequency to trigger radio resource control idle state entry.

Wireless device manages uplink power control across multiple timing advance groups, minimizing interference and maximizing battery life.

A computing device transmits power and network settings to a server that selects an optimized content version matching those specific parameters.

A full-duplex user equipment transmits a jamming signal to protect downlink messages from aggressor devices.

Assigning channel start offsets via poll frames reduces interference and power consumption in dense M2M networks.

Buffering time domain samples before powering down RF circuitry in access terminals.

Base station signals sleep mode entry to user equipment, reducing power consumption during low traffic periods.