Power Management TRIZ Cases

A beam scheduling method configures terminals to measure RSRP under uplink MPE restrictions.

Mapping rules associate error detection results with distinct uplink resources, resolving base station detection ambiguity across component carriers.

Serving base stations forward uplink data to anchor base stations using terminal identification, bypassing context migration and reducing signaling overheads.

Priority-based slot reservation resolves scheduling conflicts between NR and LTE by reserving specific time resources for high-priority traffic.

Wireless device determines uplink transmission power using distinct closed-loop indices when downlink control information lacks a sounding reference signal resource indicator.

A terminal monitors path loss changes against a set threshold to determine when to generate and transmit power headroom information.

An antenna tuner uses transmit and receive power measurements to optimize performance across frequency bands.

Access point establishes restricted target wake time sessions to reserve wireless medium access for latency sensitive stations.

Autonomous base station units select available frequency bands to prevent computational overload on central controllers in shared spectrum environments.

Segmented reporting structures calculate actual and reference power headroom per TRP to maintain precise uplink power control during high-speed mobility.

Prohibit timers defer redundant MAC CE and PDCP control PDU transmissions, reducing signaling load and conserving UE battery power.

Device assesses coverage enhancement parameters and postpones transmissions during poor signal conditions, reducing retry rates and extending battery life.

A decoder interprets average subframe energy levels in LTE frames to detect wake-up signals for IoT devices.

A resource control module manages PLMN selection during RRC inactive mode transitions.

A radio transmitting apparatus adjusts pilot symbol signal levels to match data composite signals across varying antenna configurations.

A boost converter regulates supply voltage for magnetic secure transmission circuits.

Dynamic mode switching between unsegmented framed and unframed states reduces power consumption while maintaining audio stream continuity.

A scheduling UE reserves sidelink resources within inactive durations of another UE's DRX pattern using control information.

A spectrum management apparatus acquires utilization data to determine efficiency and adjusts sensing parameters for unlicensed bands.

A vehicle wireless local area network uses synchronized clocks to align transition edges across multiple network controllers.

Variable Rx-on periods adapt to VoIP talk spurt patterns, minimizing power consumption while maintaining service reliability.

A Bluetooth Low Energy terminal selects data sending modes based on service type to optimize transmission performance.

Pulse reversal keying modulates ingestible bio-telemetry tags to minimize collision risks during frequency hopping.

A terminal device adjusts inter-frequency measurement attributes based on network configuration to optimize radio resource monitoring.

Categorizing mobile traffic through a distributed proxy and cache system reduces battery consumption and network bandwidth by eliminating unnecessary polling.

User equipment selects one of multiple power saving configurations received from a base station to optimize energy usage.

Wireless devices manage HARQ processes for PUSCH transmissions to maintain data flow.

A portable electronic apparatus selectively disables data traffic for specific applications during standby mode via a user interface.

A terminal location-based antenna allocation method determines a reference quantity of antennas to adjust until performance thresholds are met.

User equipment detects data inactivity causes to prevent unnecessary signaling and reduce power consumption during wireless network recovery.

User equipment transmits reference signal receiving power alongside geographic and type information to another device.

A base station controller determines optimal matching states, reflective element on/off configurations, and phase values for reconfigurable intelligent surfaces.

A power manager transitions wireless sensor devices between low and active modes based on evaluated sensor data attributes.

A wireless transmission method dynamically regulates transmit power across multiple carriers using indication information to optimize signal delivery.

Open-loop power control mechanism for V2X signals uses independent periodicity to optimize transmission parameters.

Mobile devices route uplink control messages to signaling radio bearers during network congestion.

A control apparatus calculates channel gain using reference signals to estimate reception quality for accurate resource allocation.

Peeking at preamble and access address fields allows network devices to return to low power mode early, reducing active state time by over 90%.

An SMO framework uses AI models to predict traffic and optimize carrier switching in O-RAN networks.

A user equipment segments Random Access Response monitoring into active and inactive periods to reduce wake-up time.

Segmenting carrier aggregation into multiple diplexers with wider spacing reduces filter insertion loss, decreases heat dissipation, and lowers component costs.

Segments power control parameters into independent sets for each TRP, improving precision while managing system complexity.

Calibration logic predicts feature level power consumption using sensor readings and applies calibration factors to determine actual usage.

Frequency-domain signal processing enhances primary synchronization signal detection accuracy in low power wakeup receivers while minimizing false alarms.

A simulation environment models communications channels to assess satellite-based receiver message extraction feasibility using RF transmission data.

Buffering data at the access point resolves the trade-off between power saving efficiency and throughput stability in multi-user MIMO networks.

Dynamically adjust PT-RS power boosting factors based on transmission coding schemes to reduce interference while maintaining signal reliability.

Segmenting ACK/NACK feedback into distinct PUCCH resources to resolve the trade-off between HARQ reliability and resource allocation complexity.