Power Management TRIZ Cases

A user equipment cancels channel status information reference signals outside channel occupancy time to reduce power consumption.

A wireless communication apparatus acquires channel information from a peer device using low-power Bluetooth Low Energy to select and transmit network connection parameters.

A wireless transmitter selects clock signals and adjusts modulation bandwidth to adapt operation modes.

Predistorted signaling enables local interference compensation, eliminating the need for global information exchange and reducing energy consumption.

User equipment determines maximum uplink transmission power based on semi-static communication direction within a specific frequency range.

Generating a sensing headroom report with self-interference and noise metrics resolves the trade-off between sensing accuracy and signal saturation.

A communication apparatus dynamically adjusts link counts and power states to optimize energy usage.

A relay determining method classifies terminals by link quality to establish forwarding paths between first-type and second-type devices.

A common downlink channel delivers content to multiple users while dedicated uplink channels carry quality indications for power adjustment.

An uplink power control method adjusts High-Power Amplifier operating points to maintain optimal performance.

Transmitting user equipment communicates transmission power differences between sidelink positioning reference signal resources to receiving devices.

A wireless device manages uplink power allocation across master and secondary cell groups to maintain reliable communication links.

Separating uplink power control into OLPC for data channels and CLPC for control channels reduces interference variance while maintaining required SINR.

Terminal displays dynamic images using pre-rendered frame sequences decoded by hardware video decoders.

Evaluation apparatus detects partner base stations and confirms pairing relationships for two-point positioning schemes.

A receiver selectively activates analog-to-digital converters to update digital predistortion parameters.

Receiving power amplifier assistance information enables dynamic waveform switching that maintains monotonic power sweep and improves coverage.

Virtual neighbor objects aggregate multiple femtocells into single identifiers to streamline idle mode reselection processes in dense wireless networks.

Radio beacon adjusts transmission power based on stored OBU identifiers to localize units, reducing cross-talk from varying reception sensitivities.

Mapping energy type data to network functions resolves the contradiction between energy management optimization and system complexity.

User equipment selects exceptional resource pools for sidelink communication to resolve reliability and complexity trade-offs during network failures.

A network terminal device proxies user plane data transmission, releasing wireless air interface connections and reducing terminal power consumption.

Multi-state DRX segments connected mode into granular states, resolving the trade-off between latency and energy efficiency through adaptive scheduling.

Connection management application monitors power headroom reports to trigger controlled disconnection signals for user equipment.

A communication controller sequentially activates wireless modules to minimize power consumption.

Defining multiple cell wake up signaling occasions allows user equipment to transmit specific requests, reducing network energy consumption.

Connection server generates targeted wakeup packets using stored device identifiers to wake networking apparatuses from sleep mode.

Calculating net power from network terminals via channel loss data resolves legal complexity in remote node energy supply.

Base station schedules uplink and downlink transmissions using UE capability indicators to minimize collisions in low complexity diversity receivers.

A transceiver performs partial sensing to determine candidate resources for sidelink transmission.

A base station adjusts downlink transmit power using a scaling factor derived from transport block size to match signal strength with data volume.

A battery optimization unit processes sensor data locally using a priority-based rule engine to manage device energy levels.

A wireless device transmits data on pre-configured common resources during the PRACH procedure.

Terminal reports power imbalance indication to network device, enabling compensation that corrects SRS coverage inconsistency and improves CSI accuracy.

A radio frequency switching module uses asymmetric timing to control MOSFET gate voltages during mode transitions.

Transmitting preamble segments at higher power than data segments improves frame detection in legacy wireless networks.

Host device switches wireless remote control between sleep and sniff modes to conserve battery power while maintaining communication responsiveness.

eNB transmits DMRS transmission power control information to user equipment.

Segmenting cells into distinct timing advance groups reduces excessive timing differences and interference, enhancing uplink reliability.

Determining transmission power for uplink control information using PUCCH format dependent values.

Harvested NFC power charges a restart circuit that triggers processing circuit reset, solving non-operational constraints in buttonless IoT devices.

A communication device segments data transmission into a second channel while maintaining connection stability through a first channel.

Preconfigured uplink resources enable terminal devices to transmit data during random access procedures without establishing full radio resource control connections.

A clustering server detects neighboring base stations and adds them as members to existing clusters.

Accurate EVM parametrisation prevents overestimation of deviations, reducing unnecessary power back-off and improving signal quality.

A message aggregation module buffers and schedules multiple data messages to maintain mobile devices in an idle state.

A system identification module detects management frame source addresses to determine network device operational states.

A wake-up radio applies delta factors to compensate for channel measurement differences between main radios and the wake-up receiver.

A processing system schedules sleep intervals for wireless stations and buffers downlink data during the low-power period.