Power Management TRIZ Cases

A network node allocates bandwidth and component carriers based on user assistance information to maintain continuous connectivity.

Terminal calculates transmission power based on specific path losses to macro and pico base stations, preventing excessive energy use when near a pico station.

Open loop power control determines transmit power spectral density using reference signals to manage uplink channels in wireless systems.

A CSG femtocell base station coordinates with neighboring nodes to predict and adjust transmission resources before interference degrades service quality.

A limited service state controller adjusts mobile device activity parameters to minimize power usage while maintaining emergency service access.

A handover prevention mechanism blocks unauthorized access requests to conserve device battery power.

Tessellated access point grids with non-overlapping channels minimize signal interference and preserve user privacy in multi-unit buildings.

Dynamically scalable data plane architecture segments processing into independent clusters that activate or deactivate based on real-time traffic loads.

A reference discontinuous reception cycle aligns measurement timing across master and secondary cell groups in dual connectivity mode.

A modulated preamble allows user equipment to detect scheduled messages before full decoding.

Segmenting the preamble into common and protocol-specific bit subsets allows legacy devices to extract essential information without full format decoding.

A mode-switchable navigation radio dynamically toggles position location circuitry between active and sleep states to conserve energy.

A redundant communication bus uses circular topology and passive frequency division multiplexing to ensure continuous data transmission across energy storage nodes.

A backup BMU selects a target unit to relay frequency conversion commands, enabling the main BMU to recover communication with faulty managed units.

A BLE transceiver switches roles to establish a second connection at maximum transmission rates.

Associating RACH resources with reference signals reduces handover latency and power consumption during beamforming transitions.

User equipment measures radio quality indicators and compares them to threshold values to determine sounding reference signal transmission.

Dynamic power allocation in downlink data channels reduces self-interference and improves data demodulation performance.

Electronic device measures wireless signal time-of-flight to determine object range and user intent without explicit commands.

A mobile station determines transmission suitability for assistance data based on network capability signals.

Terminal acquires transmission power assistant information to determine sidelink transmission power levels.

A beam reporting method adjusts transmission beams based on synchronization indices to maintain reliable paging connections.

Dynamic scheduling switch notifications enable user equipment to monitor designated network nodes.

A mobile terminal controller manages battery usage by designating specific contact addresses for priority power allocation.

Negotiating active time values reduces latency and power usage by enabling dynamic PSM state adjustments via Tracking Area Updates.

A DC-DC voltage converter adjusts output levels to reduce power dissipation in electrical conductors supplying time domain duplexing radios.

A radio communication apparatus detects flying objects near the propagation path and adjusts transmission power to maintain signal quality.

Robust modulation and encoding schemes enable reliable uplink transmission in the presence of link-budget imbalance between upstream and downstream links.

User equipment monitors downlink control information indicators to extend awake states during sleep periods, resolving DRX synchronization accuracy issues.

A mobile device controller fuses proximity and biological response signals to identify when the unit rests inside a clothing pocket.

A wireless device selects power control parameters for sidelink feedback signals based on specific feedback types to determine transmit power levels.

Terminal reporting of serving and neighboring cell beam signal quality enables proactive interference coordination in high-frequency networks.

A femtocell basestation reports an adjusted transmit power within a standard range alongside a separate adjustment factor.

A processor coupled to NFC and magnetic sensors maintains active mode during communication.

An adaptive power control scheme switches between open-loop and closed-loop modes based on subscriber station mobility.

Network nodes construct configuration indications containing CRS and CSI-RS data to reduce blind detection complexity in NAICS receivers.

Segmenting the receiver into a low power unit and main radio minimizes energy use during idle periods while maintaining rapid response latency.

A terminal control section determines Power Headroom Report content when uplink transmissions overlap.

Network access device transmits multicast frames during designated DTIM intervals to connected computing devices.

A client device schedules data packet transmissions based on predicted future power states and network performance characteristics.

Multi-agent deep reinforcement learning enables distributed power allocation across base stations.

Consolidating future access periods into one notification reduces air interface resource waste caused by frequent paging attempts during power saving modes.

A core node receives indications that a wireless device uses energy harvesting to modify network procedures.

Combining received signals from multiple RRUs calculates correction coefficients, resolving low signal-to-noise ratio issues.

A multi-link station retrieves buffered packets before disconnecting from the current access point.

An IoT tracker conserves battery power by entering sleep modes based on proximity and schedule triggers.