Power Management TRIZ Cases

Access node increases scheduling priority for non-standalone user equipment, reducing battery drain from dual connectivity.

A wake-up signal scheme lets user equipment skip unnecessary DRX cycle activations to conserve battery energy.

Per-panel uplink power control configures independent maximum output power and pathloss reference signals for each user equipment panel.

Access points coordinate target wake time schedules via beacon frames to reduce inter-network interference and improve latency in dense wireless environments.

A transmitter power control system adjusts output levels based on detected human proximity to maintain SAR compliance.

A user device maintains a main transceiver in an on state after message exchange to monitor downlink channels without external triggers.

A base station control method shuts down the remote radio unit and loads only essential modules in the multi-mode baseband processing unit.

A terminal device determines attributes of received cell broadcast messages to establish a dynamic reception policy.

Periodic signal transmission and dynamic mobility adaptation balance uplink reliability against battery life constraints.

A power management system in remote units measures consumption and calculates available power to prevent shutdowns.

A terminal selects discovery resources based on reception signal power thresholds to optimize transmission parameters.

Dynamic role switching between proxy server and client functions reduces power consumption while maintaining service continuity in wireless networks.

Gateway devices validate payload bits using stored profiles to extend node battery life.

A multiport wake pattern assigns reserved ports to applications, enabling network interface controllers to detect and wake specific software instances.

User equipment determines physical uplink shared channel transmission power using separate parameter sets for subband full duplex and non-full duplex symbols.

A user equipment generates a joint power headroom report combining multiple radio access technologies.

An access point transmits scheduling information to stations via control channels to indicate allocated time-frequency resources.

A wireless device switches communication protocols based on battery thresholds to optimize power usage.

A base station prioritizes mobile stations using throughput and achievable rate data to manage reverse link scheduling.

Segmenting the application processor from a dedicated sensor microcomputer reduces main CPU power consumption without sacrificing responsiveness.

Segmented receivers use non-data packet wake-up signals to activate main units, cutting idle power consumption in wireless devices.

User equipment generates chirp signals with purpose indicators to resolve resource utilization and power consumption trade-offs in wireless networks.

A conditional device-to-device relay mechanism manages radio link failures by transmitting signals to intermediate nodes.

Configuring DCI with power saving schemes enables user equipment to skip PDCCH monitoring, reducing energy consumption.

Network device ranks candidate relay devices by energy harvesting capability to reduce signaling overhead and interference in non-terrestrial networks.

User equipment autonomously triggers sounding reference signals to select base stations, resolving coordination delays and interference.

Periodic scheduling of headset Wi-Fi components extends battery life by disabling modules during inactivity while maintaining system readiness.

A relay node estimates interference from neighbor cells using mobile device measurements and reports the data to donor eNBs for coordination.

Layer 1 signaling dynamically overrides higher layer PDCCH configurations, reducing base station overhead and improving power efficiency.

A network function collects user equipment energy statistics to determine session policies.

A communication terminal adjusts signal strength measurement intervals based on relay station thresholds.

Dynamic transmission power adjustment allows parallel wireless processing without disrupting existing communications.

Dynamic emission mask configuration enables user equipment to comply with varying regional standards without manual reconfiguration.

An extended paging indicator-based adaptive discontinuous reception method dynamically adjusts terminal paging cycles using specific bit Run types.

Extending DRX active periods upon detecting sidelink control information resolves power consumption versus communication capability trade-offs.

A processor-controlled H-bridge circuit regulates transmission voltage and current for downhole electromagnetic telemetry signals.

A user equipment selects a channel state information computation mode based on effective isotropic radiated power constraints to generate accurate reports.

User equipment reports self-interference characteristics to optimize resource allocation and reduce error rates in 5G networks.

Dynamic WUS index rotation based on SFN allows Rel-15 and Rel-16 UEs to share resources, reducing false paging and energy waste.

Broadcasting time information allows detection of occupied resources, reducing power consumption and processing delays in dense networks.

A terminal performs random access via an unlicensed band using multiple channel access procedures with distinct configurations.

Smart engine manages machine learning workloads by selecting models and scheduling tasks based on device status to conserve battery power.

Machine type communication user equipment detects neighboring cell capabilities before initiating extended coverage access procedures.

A user equipment sends a Signaling Connection Release Indication message to release an RRC connection.

A cell search method scans radio channels using standard increments to estimate primary synchronization code signal-to-noise ratios.

A hybrid framework merges spectrum access system authorization with access probe signaling to enable user equipment registration.

A vehicle locating unit receiver synchronizes with transmission towers using periodic detection cycles to conserve battery energy.

An integrated service paging system consolidates network polling to reduce terminal energy consumption.