Power Management TRIZ Cases

Station synchronizes timing via probe requests to prevent clock drift and power inefficiencies during doze states.

A base station apparatus adjusts speech transmission timing based on measured network delays to maintain continuous playback intervals.

Dynamic power allocation matrices improve decoding precision in superposition coding by canceling interference between power layers.

User equipment switches power modes to measure positioning reference signals, reducing energy consumption while maintaining accuracy.

Network device standardizes DCI sizes for UE specific and group power saving signals, reducing terminal monitoring complexity and power consumption.

A dynamic dormancy module transitions wireless devices to low power states based on measured round trip time.

Centralized unit generates paging messages with assistance information for distributed network units.

Target wake time scheduling prevents data loss and synchronization issues during sleep periods.

Machine learning evaluates location trust to trigger BIOS wake-up only in trusted zones, reducing battery drain from constant connectivity.

Optimizes wireless sensor network energy consumption through dynamic duty cycling and selective encryption strategies.

Processor switches master and diversity antennas based on power thresholds.

Segmenting downlink frame delivery into legacy and unscheduled modes minimizes simultaneous station wake-ups and reduces traffic delays.

Tile-based control resource mapping reduces system overhead while maintaining transmission reliability across diverse channel requirements.

Inter-DRX assistance coordinates multiple discontinuous reception configurations per MAC entity to reduce user equipment power consumption.

Early detection of unauthorized messages allows the radio receiver to disable promptly, preventing energy wastage from processing malicious wake-up signals.

One-symbol and two-symbol uplink signals carry control information using distinct transmission formats.

Packet Traffic Arbitration module coordinates wireless modules using priority-based request granting.

A receiver uses multiple variable gain amplifiers with an automatic gain control circuit to adjust gain ratios across frequency bands.

User equipment determines separate uplink power limitations for multiple transmission time intervals to coordinate transmissions.

A sidelink discontinuous reception configuration enables user equipment to monitor control channels during active periods and sleep during inactive intervals.

Network node segments power control for serving and non-serving reception points to resolve interference versus measurement accuracy trade-offs.

Home automation devices reduce power consumption and response latency by dynamically adjusting sleep intervals based on RSSI changes.

Radio frequency processing modules enter low power states when precoding identifies all-zero data, reducing energy consumption in massive MIMO terminals.

An application driven fast dormancy scheme transitions wireless user equipment into a dormant state based on active process traffic patterns.

A mobile phone proximity sensor activates based on weighted acceleration data from an internal accelerometer.

Reducing transmission power for dummy frame headers minimizes inter-beam interference while maintaining TDM synchronization.

A mobile telephone alternates transmission periods to conserve battery energy.

A user equipment monitors a physical downlink control channel on a set component carrier to receive uplink scheduling resources.

A wireless communication method manages RRC states to transmit HARQ-ACK signals on pre-configured resources.

A wireless device detects usage parameters to adjust transmit signal power levels across predefined classes.

A location-based apparatus management system uses discovered wireless network identities to determine device position and trigger automatic operations.

User equipment processes RRC response messages early to reduce signaling overhead and energy consumption in IoT networks.

A mobile device selects radio frequency resources based on specific absorption information to prioritize high-quality data transmissions.

Negotiated wakeup schedules allow TDLS peer stations to enter power saving modes simultaneously while maintaining direct links.

ASIC memory cores process data packets in place to decrease CPU cycle consumption and battery drain.

Adaptive signal power control reduces contention rates among mobile terminals during initial OFDMA access without consuming additional uplink resources.

User equipment allocates transmit power to uplink channels based on overlapping time thresholds within specific timing advance groups.

A user equipment method determines position change and signal quality to stop cell search procedures.

A processor dynamically allocates radio frequency resources between two subscriber identity modules to perform staggered paging monitoring and measurements.

User equipment identifies useless measurement gaps and deactivates receive chains, extending battery life during active calls.

Base stations use majority voting on repeated erasure indicator bits to resolve fast fading channel interference during soft handoff.

A terminal device monitors user activity to predict usage probability and enables power saving mode when likelihood falls below a threshold.

Preambles map to beams before base station wake-up, resolving the trade-off between energy savings and connection latency.

Base station transmits distinct minimum receiver levels to mobile devices based on carrier aggregation capability.

A paging controller assigns a unique identification to mobile stations entering idle mode, enabling base stations to determine specific frame indices.

A user equipment transmits a single physical uplink control channel carrying hybrid automatic repeat request feedback for unicast and multicast signals.

Management frames schedule temporal slots to reduce access point power consumption while maintaining communication availability.

Segmenting the receiver into a low-power wake-up unit and a main transmitter reduces energy consumption while eliminating latency in TDMA networks.