Power Management TRIZ Cases

Infrastructure equipment transmits wake-up signals and preamble synchronization to wireless communication devices.

Dynamic user selection and power allocation optimize sum degrees of freedom despite varying channel estimation errors.

Access network devices transmit polarization sequences to align user equipment antenna orientations with satellite beam directions.

Segmenting power control parameters by beam type resolves the trade-off between transmission reliability and signaling overhead in New Radio networks.

A throughput model selects optimal power control measures to maximize data rates in highly mobile wireless environments.

An electronic device detects peripherals and registers preference devices to manage communication connections.

Bluetooth earphones dynamically disconnect A2DP links during idle periods to lower energy usage while preserving call functionality.

Access points adapt synchronization beacon transmission timing based on station power modes, reducing medium occupancy and improving energy efficiency.

Transmitting an intermediary frame after a wake-up radio signal reduces channel access latency for legacy devices.

Partitioning radio connection establishment into distinct phases allows dynamic selection of access technologies, reducing energy usage during device discovery.

Electronic device selects noise cancellation variables based on reception signal strength to suppress audio interference during voice calls.

A terminal compares motion data from a bound wearable device to verify user authorization before executing an unlock command.

A base station transmits a starting OFDM symbol in a master information block to configure narrowband downlink reception.

A wireless device adjusts transmission power based on antenna gain and retransmission rates to maintain signal strength.

Master station processes distinguishable HEW-STF signals to set receiver gain for uplink multi-user transmissions.

A base station transmits feedback control messages containing target received power and channel quality indicators to terminals.

Independent power control adjustments per carrier segment uplink traffic, increasing network capacity while reducing overall device power consumption.

Terminal allocates power based on transmission time interval length to resolve latency reliability trade-offs in heterogeneous wireless networks.

A terminal detects a power-saving control channel to determine an active search space group for subsequent monitoring.

User equipment requests and releases measurement gaps to balance MSIM measurement accuracy against device power consumption.

A terminal receives control information from a base station to determine the status of its discontinuous reception function.

Reducing subcarrier power in dedicated interference measurement symbols minimizes distortion for accurate channel state information reports.

A radio link failure report includes a power saving level indicator to filter device data.

Segmenting stations into high and low power groups assigns distinct time slots to reduce co-channel interference in dense wireless networks.

Differential CQI reporting reduces transmission overhead and Peak to Average Power Ratio while preserving scheduling accuracy.

A polling manager coordinates synchronization intervals across mobile applications to maintain connectivity.

Dynamic power policies adjust edge device states based on real-time network area zone occupancy.

A relay header embeds control information in uplink messages to enable base station feedback.

Dynamic switching between high-resolution and low-power sensors conserves battery life while preserving continuous environmental monitoring capabilities.

A user equipment device limits carrier frequency scanning to conserve battery energy during low-power states.

A base station selects beams using uplink receive power and determines weighted values through eigenvalue decomposition.

Devices dynamically calculate advertisement intervals using battery levels and traffic density to reduce power consumption and channel congestion.

Dynamic MAC-CE activation of RLC entities reduces latency and power consumption while maintaining transmission reliability.

A radio base station reallocates mobile devices between frequency bands to manage power consumption.

Access terminal selects reverse link CQI reporting modes via dynamic parameter changes to reduce signaling overhead while maintaining system throughput.

A transceiver with dual power amplifiers manages intra-band non-contiguous carrier aggregation transmission.

Dynamic booster cell activation reduces energy consumption while maintaining Quality of Service in 5G networks.

Adjusting Qin and Qout thresholds per coverage level secures measurement time and prevents unexpected radio link failure.

Segmented optimization servers process data locally to minimize backhaul reliance and resolve communication latency issues in broadband wireless networks.

Limiting semi-persistent scheduling detection to a predefined window reduces false alarms and conserves battery power during uplink resource allocation.

A wireless terminal transmits aggregated frames and receives a single response indicating the last successfully received sequence number.

Secondary radios enable bi-directional wake signals, resolving the trade-off between low power consumption and immediate system responsiveness.

Distinct backoff procedures segment channel access to minimize contention and power consumption during target wake time scheduling.

Terminal apparatus detects downlink control signals to switch uplink resource regions for response signal transmission.

A user equipment determines an uplink demodulation reference signal format using a comb structure with specified subcarrier intervals.

Node Bs share system performance metrics to determine adaptive power control parameters for user equipment uplink transmission.

A communications device determines a target monitoring occasion based on a target beam and a mapping relationship to reduce unnecessary downlink control information monitoring.

Segmenting control commands via secure BLE and operational data via standard Bluetooth resolves security versus complexity trade-offs.

A wireless terminal calculates guaranteed data rates from reception power to select the optimal communication network.