Power Management TRIZ Cases

AI models generate weighted sector scores to apply tailored energy-saving techniques, balancing consumption with QoS thresholds.

A direct link power save delivery mechanism coordinates mobile stations to manage energy states during active data transfers.

A communications device calculates uplink pathloss using reference signals from an uplink-only infrastructure equipment.

A small cell base station generates interference cancellation signals to resolve self-induced interference during network listen operations.

A user equipment enters a power saving state and transitions to active mode using device-to-device signals.

Distributed wireless sensors synchronize timing using external event signals without direct communication.

Segmented RF circuits transmit periodic beacon signals via residual power, enabling device location while protecting the battery from deep discharge damage.

Mutes overlapping positioning reference signals via zero-power configuration to resolve interference and measurement precision trade-offs.

An information processing apparatus manages parameter settings for low-power consumption states in IoT devices.

A channel selection method scores candidate frequencies using transmit power estimates derived from interference margins to rank available spectrum options.

A signal-attenuation module adjusts received power to match expected channel conditions during wireless network verification.

Wireless terminal transmits uplink rate option information via energy patterns, enabling base station interference control and battery conservation.

Base station determines beam parameters based on reflective surface location to improve signal quality in shadow areas.

Network signaling configures timers to reduce activation delays during dormant bandwidth part transitions.

A bicycle component controller manages wireless pairing modes using periodic signal listening to balance connection reliability with power consumption.

Preliminary action and dynamics principles optimize communication paths and timing to extend battery life while maintaining reliable connectivity.

Selective forwarding based on uplink transmit power reduces signaling overhead and delay while expanding transmission range in V2V networks.

A detector device counts user terminals by incrementing a counter upon detecting transmission of control messages between terminals and network nodes.

Firmware tracks child contexts to halt ACK responses, reducing battery waste and enabling timely link failure detection.

A BTLE access control device adjusts its communication rate based on sensor detection.

Adjusting transmission power across multiple uplink component carriers to manage total output limits.

A network entity adjusts roaming firewall idle timers based on device inactivity phases to maintain persistent sessions.

A PUCCH Format 3 structure transmits ACK/NACK and CSI bits using a calculated power control offset parameter.

Dynamic padding duration eliminates wasted overhead in high-frequency wireless networks by adapting symbol alignment to subcarrier spacing.

A wireless intercom link adjusts image quality based on communication status.

Timing information from a sender allows receivers to exit low power states only when needed, reducing latency and energy consumption.

Segmented TPC commands across multiple carriers resolve uplink power control bottlenecks in carrier aggregation systems.

Camera-based face recognition overrides screensaver functions, resolving the trade-off between power conservation and continuous user convenience.

A wireless transmit receive unit applies dynamic skipping to configured search spaces based on network indications.

A base station shuts off a second pilot channel when no multiple-input and multiple-output users are present in the cell.

Heuristic model identifies failing devices and temporarily increases synchronization signal power to resolve cell edge connectivity issues.

A mobile terminal dynamically adjusts transmission power based on connection evaluation scores and screen state thresholds.

Corner-mounted capacitive and inductive sensors detect user proximity to reduce Wi-Fi transmitter power, preventing RF exposure harm.

An access point transmits a power-save request frame to associated stations before entering low-power mode.

A user equipment device adjusts keep alive message intervals to maintain active wireless connections.

Segmenting transmission time into data and calibration periods reduces self-interference during full-duplex operations.

A communication device uses a time offset between notification and control information to enter a lower power state.

A wake-up packet uses a tone sequence to modulate ON symbols for reliable station identification.

A wireless module monitors control signals to autonomously supply power to a central processing unit.

Non-continuous Bluetooth transmissions align with WiMax listen intervals, preventing interference during device discovery.

Switching antenna subsets distributes exposure over time, maintaining coverage while meeting EMF limits.

Cognitive radio devices determine maximum transmit power levels using spectral sensing and splatter measurements to protect incumbent receivers.

A location receiver circuit deactivates after obtaining position data to conserve energy in portable electronics.

Dynamic SIR target adjustment reduces inter-user interference and increases cell capacity by up to 90 percent.

Primary client devices decode and relay system information via short range links, reducing redundant processing and power consumption.

A dormancy profile configures bandwidth parts to suppress signaling types, reducing power consumption in wireless user equipment.

Dynamic RF tag emission power adjustment isolates official mobile applications from non-official interference, ensuring secure transaction completion.

Nonlinear bistable snap-through buckling beam harvests energy across wide frequency ranges, resolving linear resonance limits.

A wireless handover mechanism switches devices to frequency bands with lower packet drop incidence based on measured power headroom levels.