Power Management TRIZ Cases

A small cell base station transmits a discovery signal including PSS, SSS, and CRS while in an inactive state to enable terminal detection.

A switching device establishes dedicated signaling links between multiple signal connections and fewer antenna connections based on detected transmission activity.

Combining time and code division multiplexing segments mobile station commands with orthogonal codes, reducing interference while maintaining system capacity.

A mobile device selects location determination techniques based on power and accuracy criteria.

A Go to Sleep signal in group-based DCI directs user equipment into sleep mode during active periods.

A centralized beacon fleet management system coordinates automated deployment and continuous monitoring across distributed wireless devices.

Disabling DPCCH transmission in deactivated HARQ processes reduces uplink interference and extends user equipment standby time by managing power consumption.

Boundary time points segment beacon intervals to constrain transmissions, resolving high latency in time-sensitive traffic.

A dual-casing mobile device dynamically switches its touch panel between keyboard and rear-surface operation modes based on relative casing position.

Piggybacking wake-up packets on regular frames reduces channel contention and power consumption by eliminating standalone transmissions.

Coordinator sends wake-up broadcast frames with indication fields to activate multiple reduced-function devices simultaneously.

User equipment signals support for modified radio parameters via bitmap fields, preventing spectrum fragmentation from legacy incompatibility.

A network entity manages receiver enable times using MLME-RX-ENABLE.request primitives to control ranging scheduling time units.

An RFID reader interrogates tags to determine device location and adjusts Wi-Fi transceiver antenna power levels accordingly.

A sensor microcontroller adjusts network controller scan rates based on device context to reduce power consumption during mobile operation.

A target short training sequence generates a unique autocorrelation peak to enable fast initial time synchronization.

Compressing dedicated control channel signaling data into subpackets enables discontinuous transmission periods during voice calls.

Segmenting active sets into subsets allows the radio access network to conserve air interface capacity while maintaining required signal strength levels.

Bluetooth AMP transmit power control adjusts signal amplitude using received signal strength indicator feedback to minimize co-channel interference.

A wireless system switches between fixed and dynamic key encryption based on terminal power status to enable secure wake-on-lan operations.

Power control mechanisms adjust transmission levels in IAB nodes to mitigate self-interference during bidirectional operations in 5G mmWave networks.

A home automation hub switches devices between sleep and awake modes to manage wireless communication latency.

A dedicated controller retrieves commands from a management server while the main processor remains in a low-powered state.

A user equipment processor delays main radio activation using configured timers for low priority uplink data.

Snooze mode controllers adjust DC-DC converters to reduce power consumption during reception phases when settling times exceed turn-around requirements.

A reversed service discovery protocol shifts scanning duties from mobile devices to fixed access points in Bluetooth piconets.

A sensor calculates distance to a control panel using radio frequency signals to trigger proximity alarms.

Dynamic special subframe allocation mitigates inter-cell interference from low-power nodes, improving system capacity and spectral efficiency.

Adjusting transmission gains via feedback ensures uniform power densities, preventing signal quality deterioration from uneven noise distribution.

A terminal measures service status and speed to report data for network parameter configuration.

A communication device adjusts antenna states by comparing environmental parameters within specific time intervals to optimize signal transmission.

Restricted Access Window clear medium calibration coordinates station self-calibration via beacon frames, eliminating sequential medium blocking.

Processing circuitry commands an eUICC to update an eSIM using a Bearer Independent Protocol connection established via a primary wireless device.

A single bit in the Master Information Block signals system information changes to user equipment.

Dynamic transmit power adjustment during target wake time intervals stabilizes AR connection reliability while minimizing battery consumption.

A mobile transceiver activates specific wireless modules based on pre-programmed travel waypoints to manage power usage.

A radio resource management relaxation method adjusts measurement frequencies to lower power consumption in connected user equipment.

User equipment scales transmit power limits via duty cycle factors, resolving the trade-off between safety compliance and communication performance.

A communication method merges preambles to allow multiple nodes to transmit data simultaneously.

User equipment reduces peak-to-average power ratio via excess bandwidth allocation, maintaining higher transmit power levels without maximum power reduction.

Station access point frames reallocate association identifiers and adjust traffic indication map modes for wireless local area network systems.

A terminal device determines uplink power control parameters using slot format information from a neighboring cell to manage transmission resources.

Wireless serving network adjusts paging transmission power based on mobile station slot cycle index to ensure reliable page message delivery.

Segmented reporting of beam-specific power headroom resolves inaccuracies in bandwidth allocation caused by multi-beam transmission complexity.

SMF embeds PDU session identifiers in multicast notifications to simplify AMF paging, avoiding complex group response handling.

Segmenting sounding reference signals into serving and joint reception types to resolve interference coordination challenges in heterogeneous networks.

A wearable device selects wireless communication technologies based on motion data and connection status to optimize power usage.

Base stations optimize transmission power configurations using reported terminal parameters to reduce latency from multiple power ramping cycles.