Power Management TRIZ Cases

Grouping mechanisms assign wireless devices to subgroups via DCI indicators, preventing unnecessary PDSCH decoding and reducing UE power consumption.

A transmitter conveys digital data blocks at distinct power levels within a shared frequency band to support multiple receivers.

Dynamic uplink gain adjustment accommodates remote units with varying power levels, simplifying coverage scheme design and reducing network construction costs.

A wearable computing device transmits body status information via wireless interfaces to external units.

The system aligns uplink power change boundaries and symbol timing across LTE and NR RATs to prevent phase noise and distortion caused by shared power amplifier switching.

A common application programming interface consolidates shared functions across self-organizing network components to enable task specialization.

A control unit selectively enables multi-antenna receive diversity based on network indicators.

Host device leverages NB-IoT SIM credentials to activate high-power WiFi links, resolving data transmission limits while minimizing power consumption.

A network node configures identical discontinuous transmission parameters across primary and secondary uplink carriers to synchronize burst timing.

A wireless communications module determines supply voltage values for power amplifiers based on current sending rates.

A position-based mobile terminal power management device automatically enables or disables functional modules based on location data.

Nodes predict inter-arrival times and assess accuracy to minimize processor load from incorrect switching decisions.

A terminal switches between bundling and non-bundling transmission modes to manage uplink resource allocation.

Dynamic PTRS configurations adjust time and frequency density alongside localized power boosting to mitigate phase noise while maintaining spectral efficiency.

A wireless user equipment processor selects correlations in a paging indicator channel based on common pilot channel signals to extract paging indicators.

A network-controlled repeater amplifies signals using adaptive beamforming coordinated by a base station.

Dynamic beacon period and probe retransmission adjustments minimize unnecessary wireless traffic while maintaining network reliability.

A base station configures wireless devices with power control parameters based on multi-antenna modes and service profiles.

A gateway management system adjusts maximum simultaneous connections based on real-time bandwidth and battery status.

A wireless LAN node terminates frame reception early based on destination address analysis.

Master node releases stale configurations to prevent interference while retaining power parameters for faster connection.

Temporal convolutional networks predict device states to conserve battery power by minimizing unnecessary Wi-Fi connectivity.

A mobile phone coordinates power management across multiple communication devices using a server to analyze usage data.

User equipment transmits wake-up signals to base stations, allowing them to switch from dormant to active mode only when necessary.

Devices passively monitor static beams and request targeted coverage only when signals degrade, reducing signaling overhead.

Devices measure inter-packet received power to dynamically adjust transmission parameters, reducing latency caused by hidden node interference.

First terminal device calculates estimated path loss from received power feedback to resolve inaccurate transmit power control in NR-V2X communication.

A wake-up signal resource index determines user equipment sub-groups using discontinuous reception parameters to reduce unnecessary monitoring operations.

A WLAN transmission method embeds AP and STA identifiers in the PLCP header control domain to enable rapid device recognition.

Aggregating multiple uplink component carriers increases data throughput for user equipment.

A user equipment adjusts physical uplink control channel transmit power based on actual and dummy bit counts in hybrid automatic repeat request acknowledgments.

A base station adjusts cell coverage by sharing position data with neighbors to autonomously set transmission power levels.

Evolutionary algorithms optimize uplink power control settings by evolving gene pools, reducing network interference while maintaining computational efficiency.

Transmitter signals data absence on control channel to adjust power levels and reduce network interference.

A warped received signal strength vector transforms raw data for sequence based localization.

A non-blocking request processing method determines an execution completion estimated timestamp and sends it to the requestor.

Segmenting reference signals by resource block prevents LTE terminals from misinterpreting LTE+ signals, preserving throughput.

A wireless terminal processor switches a first communicator between responsive and non-responsive states based on received time information.

Grouping symbol sequences in wake-up signals identifies target standards, preventing erroneous receiver activation and reducing power consumption.

A method manages radio transmissions in endpoint devices by establishing connections only after receiving valid secure commands.

A wireless terminal receives dynamic channel state information reference signal configurations to perform targeted measurements.

A base station calculates a path loss adjustment factor using power parameters from multiple transmission points to guide user equipment uplink transmit power.

A wireless device uses a validity time parameter to determine idle mode measurement freshness.

Guaranteed time slots let low power endpoints minimize battery drain while preserving reliable channel hopping network timing.

Segments PDCCH monitoring into separate patterns for unlicensed and licensed bands to resolve the reliability versus power consumption trade-off.

A transmission circuit sends beacon signals at different powers to influence mobile station frequency band selection.

A reference signal receiving method configures distinct tracking signals based on discontinuous reception states to optimize device operations.

A terminal radio characterizes its performance by estimating signal-to-noise ratio feedback from a gateway for varying input power levels.

Battery-powered nodes interleave transmit and receive patterns based on hop layer parity to traverse multiple hops within a single communication window.