Power Management TRIZ Cases

A satellite IoT communication system assigns transmission modes to physical channels supporting multiple timeslot durations for payload bursts.

A User Equipment configures Physical Uplink Control Channel resources on a Secondary Cell by receiving Radio Resource Control signaling.

A mobile processor switches power modes based on motion data to detect user activities.

An evolved Node B determines retransmission priorities to allocate dedicated resources for user equipment data recovery.

A residential gateway adapts radio signal range based on boundary signal levels to restrict device association.

Group ID allocation reduces Wi-Fi power consumption by allowing access points to target specific wake-up radios without keeping main radios active.

A communication device manages power consumption by inverting signal transmission directions between paired units.

System logic manages RAT switching to balance data rates against power consumption.

Network transmits a wake-up signal based on synchronization signal block index to reduce user equipment power consumption during discontinuous reception cycles.

A user equipment configures radio measurements during an evaluation period aligned with a discontinuous reception cycle.

Terminal device adjusts uplink transmission power using a network-provided offset value to manage signal capacity.

A dynamic transmit power adjustment module optimizes user equipment configuration using baseband parameters.

A user equipment adapts physical downlink control channel monitoring occasions based on discontinuous reception active time to receive wake-up signals.

Dynamic channel switching and selective transmission mechanisms resolve suboptimal frequency utilization limits in extreme-high-throughput wireless networks.

Merging wakeup detection into existing audio transducers reduces power consumption while maintaining security capabilities.

An out-of-band proximity agent enables low-power femtocell discovery using separate wireless links.

Detects cyclic prefix signal power to adjust magnification, resolving A/D converter bandwidth limitations in burst frame systems.

Dynamic scheduling of dummy bearer transmissions resolves bandwidth constraints while supporting up to 500 devices with varying latency requirements.

A user equipment pauses the bandwidth part inactivity timer to switch bandwidth parts during beam failure recovery.

A radio offloads channel state information to underutilized transmit memory buffers, allowing the system-on-chip to enter low power modes.

A user equipment calculates a calibration gap timing offset using a radio network temporary identifier to synchronize antenna port adjustments.

Mobile devices adjust beacon scanning rates according to display and motion states, reducing battery drain while maintaining timely signal detection.

A data transmission system distributes variable-length data into fixed-count sub-data packets with varying lengths to maintain constant temporal distances.

Dynamic base station switching between active and sleep modes reduces network power consumption.

Wireless devices disable receiver diversity dynamically to conserve power.

A terminal controller determines transmission operations based on reference signals to manage uplink data.

A master device allocates direct communication resources among wireless devices, reducing signaling overhead while maintaining spectral efficiency.

A user terminal sets semi-static maximum transmission power per serving cell to allocate uplink energy efficiently across multiple base stations.

User equipment determines uplink transmission power by assessing PUCCH, PUSCH, and SRS transmission situations to resolve random access conflicts.

A communication apparatus manages intermittent operations using electric field coupling to optimize data transfer.

A wireless device schedules downlink control information across multiple time intervals using listen-before-talk procedures.

User equipment sets initial power adjustment values for secondary carriers to resolve uplink transmit power accuracy issues caused by channel state differences.

A receiver adjusts its discontinuous reception cycle to maintain synchronization with a transmitter clock.

A wideband transmitter switches between multiple frequencies and polarizations to maximize effective radiated power within regulatory limits.

A power overload control loop adjusts target signal-to-interference ratio and block error rate to maintain system loading below overload conditions.

A hybrid network merges fixed and mobile access points via a central server to eliminate dead zones while maintaining reliable connectivity.

Variable delivery traffic indication message intervals allow stations to balance reliable multicast reception against standby time constraints.

A terminal device switches between power saving and normal monitoring modes using trigger conditions from an access network device.

Pre-configured authorized ranges in system information blocks resolve the contradiction between D2D discovery efficiency and terminal complexity.

Access point transmits override power control information to terminals, resolving interference from neighboring sectors and improving quality of service.

Event processing module manages data stream acquisition order using statistical distributions and cost metrics.

Receiving devices discard tagged packets to eliminate channel state information disturbances caused by closed loop power control activation.

A Wi-Fi chip switches between MIMO and SISO modes to manage energy usage.

Dynamic maximum power reduction values balance interference prevention with service coverage across different channel bandwidths and frequency intervals.

Baseline signal quality targets with transport format offsets resolve slow convergence bottlenecks in wireless communication systems.

Automated network control system adjusts transmission modes using sensor data to optimize communication quality.

A station enters sleep mode during a determined back-off period to minimize awake time.