Power Management TRIZ Cases

Selective sensing information combination reduces network overhead while improving resource reuse in V2X sidelink communications.

A UE maps channel state information onto narrowband uplink data channels using predefined rules.

A transmit power control system adjusts D2D user equipment power levels based on uplink scheduling status.

An access point buffers received data during specific timing intervals to support wireless local area network clients.

A terminal device sends a TCP reset packet to an application server before entering doze mode.

A radio architecture segments wireless bandwidth into discrete resource units to enable efficient scheduling and coexistence across different protocols.

An activator device determines transmit power levels to configure tag devices for reliable communication.

Relay devices synchronize with external readers to propagate magnetic wake-up patterns, ensuring full pallet coverage without damaging outer units.

A wireless controller updates a unified power-data rate table shared across base stations and access points to align transmission speeds with received signal strength.

A diversity receiver switches between single and dual antenna modes using baseband processing to reduce power consumption and eliminate redundant SAW filters.

Shared system signatures reduce energy consumption and interference in dense networks.

A terminal manages uplink transmission power by prioritizing signals and selectively applying commands across heterogeneous networks.

A serving point adjusts modulation and coding schemes using channel quality indicators from wireless devices.

Terminal determines power adjustment component based on code rate to multiplex multiple uplink control information.

Tunneled frames allow legacy access points to relay traffic between stations operating in power save mode.

A user equipment monitors a physical downlink control channel using an offset-based time window before discontinuous reception on-duration.

A user equipment method segments sidelink resources into active and inactive subsets for control information and background sensing.

A secondary subscriber identity module card detects network registration status to enable New Radio communication functions only when required.

A broadcast manager identifies overlapping paging windows for user equipment operating in extended idle mode discontinuous reception cycles.

A dynamic VoIP location system manages device connections through periodic server polling to conserve mobile battery life.

Mobile computing devices fuse wearable sensor data to determine location context, resolving power consumption trade-offs by adjusting device functionality.

A wireless receiver calculates clear-to-send power from request-to-send measurements to broadcast suppression signals.

Sidelink discovery allows autonomous RIS units to broadcast position data, resolving the trade-off between rapid acquisition speed and power consumption.

A channel power adjustment system assigns positional priorities to self-organizing subnets and dynamically adjusts transmission power levels.

Deep reinforcement learning determines active and sleep modes for base stations, reducing calculation complexity while maintaining quality of service.

A terminal device schedules uplink signals using distinct subframe sets and transmit power control commands to manage transmission power.

Modifying a memory location advertises interface availability so sleep-clients check status and prevent information loss during wireless chip sleep-mode.

A preamble detector cycles power to receiver components during short detection intervals and removes it during sleep periods.

A wireless communication device dynamically controls beam correspondence to adapt uplink and downlink operations based on real-time network conditions.

User equipment shares wake-up signal configurations via sidelink channels, reducing network signaling complexity and energy consumption.

A submerged wireless device manages cellular connectivity by deactivating the baseband component when underwater to prevent futile connection attempts.

A wireless communication coordinator manages data exchange between infusion pumps and external devices.

Configuring a dynamic reception window based on transmission timing resolves the trade-off between battery consumption and message delay.

A dedicated low-current RF receiver detects spectrum availability without activating the main transceiver.

Staggering relay subframes resolves half-duplex bottlenecks by increasing backhaul capacity and reducing resource wastage.

A near field communication device adjusts signal detector sensitivity using a controller to optimize power consumption.

Access points detect terminals and signal base stations to wake up only for incoming calls, reducing standby energy consumption in heterogeneous networks.

Logging radio link monitoring resources after failure enables network optimization of beam configurations, reducing overhead and computational load.

A dynamic transmission power allocation method adjusts user packet bit rate and delay using buffer status indicators.

A wireless communication apparatus manages interference by sending uplink transmission invitations that identify downlink destinations before data exchange begins.

Devices generate power headroom reports via candidate parameter configurations to resolve accuracy and overhead trade-offs in 5G NR systems.

A wireless transmission circuit generates ASK or PSK signals using a class-C amplifier and polarity reversal logic.

Shifting LTE channel frequencies and blanking overlapping radio resources to enable narrowband IoT operation within carrier guard bands.

Segmented PHR triggering resolves missing dual-connectivity feedback mechanisms, enabling timely uplink scheduling across multiple network nodes.

Dynamic timeout values adapt to usage habits, reducing backlight power consumption while preserving user satisfaction during active device sessions.

Mobile phones synchronize trigger messages by sensing the end of another device's unscheduled service period to prevent collisions and reduce power consumption.

Access points exchange interference avoidance requests via backhaul signaling to coordinate transmit power adjustments across wireless networks.

Master device interrupt detector supplies power to wireless communication units only when interrupts occur, reducing master side power consumption.

Base station detects uplink power restrictions via modulation and coding scheme indices to prevent call drops from coverage imbalance.

A first node adjusts transmit power based on location information to expand coverage while reducing interference in V2X scenarios.