Power Management TRIZ Cases

Wireless devices report power and interference metrics to network nodes for optimized radio resource configuration.

An EPS interworking functional block maps non-LTE air interface functionalities to evolved packet core sessions.

Grouping search space sets enables user equipment to monitor physical downlink control channels with reduced processing overhead.

Speech recognition device buffers audio utterance to isolate voice commands regardless of wake-up word position.

A base station builds a transmission model using signal strength data to predict mobile unit transmit power requirements.

User terminal reports downlink measurements to enable base station selection of a single active antenna panel for data transmission.

A common synchronization channel design enables efficient device discovery for narrowband machine-to-machine communications.

A MAC subheader includes a dedicated bit to signal enhanced reduced capability support in wireless terminals.

A terminal transmits operational data via one channel and status indicators via a second channel to a server.

A base station adjusts output gain per RF path to manage total power in beamforming systems.

Processor switches NFC transceiver between high and low power modes to reduce energy consumption while maintaining communication responsiveness.

A programmable hardware sleep cycle controller manages power states in wireless devices by independently powering down processor and RF circuits.

User equipment reports timing and power information to the network, resolving scheduling complexity in dual connectivity systems.

A terminal device detects a wake-up signal before on durations to skip unnecessary PDCCH checks, reducing power consumption.

A mobile device controller defers low-priority data packet transmissions based on operation state.

A base station selects transmit-receive user equipment pairs based on channel strength to enable simultaneous uplink and downlink transmission.

Periodic discovery and mesh management windows synchronize station activity to prevent congestion and reduce power consumption.

A terminal receives downlink control information to trigger aperiodic channel state information reference signals using configured timing offsets.

A wireless terminal monitors paging messages to detect disaster warning indications before activating the downlink shared channel.

User equipment signals data transfer completion to trigger radio resource control state transitions.

A communication system assigns dedicated frequency bands to device groups for parallel signal transmission.

Segmented resource units enable parallel data transfers, while uplink transmission requests reduce latency by pre-scheduling channel access.

Adjusting transmit power per physical resource block reduces interference between signals in device-to-device communication networks.

Autonomous base station clusters exchange local measurement data to dynamically optimize energy saving and network performance without centralized signaling.

A method determines antenna configurations for multi-antenna arrangements based on active communication functionalities.

Aggregator controller assigns user equipment as relays to extend network coverage while minimizing interference and resource consumption.

Network entity adjusts physical base station operation modes using virtual load predictions to optimize energy consumption.

Dynamic PDCCH skipping reduces power consumption while maintaining low-latency traffic handling without RRC reconfiguration.

Autonomous terminal scheduling calculates listening positions from connection identifiers, reducing base station management complexity and traffic volume.

Dual UL power control processes adapt to flexible TDD configurations via dynamic DCI indication.

A communications device enters a power save standby mode that terminates channel scanning when traffic volume remains below a predetermined threshold.

Estimating maximum supportable data rate from uplink power headroom reduces rank determination error and computation complexity in base stations.

A wireless device toggles receive diversity chains based on channel quality metrics to manage signal reception.

Communication apparatus allocates additional operating windows between sidelink discontinuous reception cycles to extend sensing periods.

Dynamic uplink power control adapts transmission parameters using real-time load data from neighboring cells to mitigate interference in heterogeneous networks.

A terminal device selects a paging carrier and determines a target discontinuous reception cycle based on network-provided minimum cycles.

Base stations exchange interference cancellation probability indicators to allocate capable terminals at cell boundaries, reducing unnecessary processing loads.

A power control module allocates electrical power to a wireless network interface during joining and shares it with device transducers after connection.

A wireless system disables beamforming on frequency bands when fading channel measurements exceed a threshold to maintain connection stability.

A polling communication protocol reduces power consumption through role switching and selective response mechanisms.

A dual mode transceiver switches between long range and short range wireless modes based on network conditions.

Predefined Minimum Common Entry Sets in terminal devices reduce maximum random access delay by bypassing periodic network broadcasts.

A hybrid wireless transceiver harvests power from radio messages to activate active components without internal batteries.

Timeslot-based charging with storage buffers manages peak demand to prevent voltage sags during computing device startup.

A home base station uses channel fingerprinting to predict interference conditions and adaptively adjust transmit power levels.

A user equipment adjusts its LTE category based on signal strength and battery charge levels to maintain connectivity.

A Relay UE broadcasts battery state information to Remote UEs to optimize power usage and manage connection requests.

A controller consolidates service groups onto fewer active network components during low traffic periods to reduce average power consumption per subscriber.