Power Management TRIZ Cases

A wireless terminal selects alternative radio resources to alter transmission patterns and avoid periodic repetitive signals.

A user equipment applies additional maximum power reduction values to limit uplink transmission power levels.

Partitioning transmission intervals reduces interference from high-speed packet bursts on voice services.

Segmenting reference signals into multiple DMRS sequences improves channel estimation precision, reducing resource conflicts among high-speed vehicles.

Network manager commands base stations to reduce emissions upon detecting radio altimeter signals, preventing receiver desensitization.

A trigger node sends downlink signals to zero-power terminals, separating transmission paths from uplink traffic.

Mobile stations transmit data at predetermined rates without base station scheduling, reducing transmission delays and conserving bandwidth.

User equipment transmits assistance information as a scheduling request indication to trigger base station resource assignment.

Segmenting power headroom reporting into multiple types resolves the contradiction between improved network capacity allocation and increased system complexity.

Fixed precoding field sizes resolve decoding ambiguity to improve PDCCH reliability and power control accuracy.

A power management method enters a power-off suspend mode when battery voltage drops below a threshold.

Base stations vary forward link power to elicit mobile station responses, resolving reverse link loss during handoffs.

A user equipment selects transmission rank for retransmissions based on transport block size thresholds.

Segmented wake-up signal detectors reduce power consumption while maintaining low latency.

Segmenting subframes into distinct sets with unique beta offsets optimizes uplink control information transmission while managing device complexity.

A transmitter dynamically selects communication modes based on central unit acknowledgment signals.

An electronic apparatus manages access point connections by selectively enabling or disabling IEEE 802.11v support to control roaming behavior.

A water leak sensor switches between sleep and standby modes to conserve battery power in underground pipe networks.

Predicts device mobility and traffic throughput to assign wireless carrier roles dynamically.

A unified antenna front end controller dynamically tunes and reduces power across multiple radio access technologies.

A wake-up receiver monitors short signals to determine control channel activity.

Calculating minimum transmission power for candidate base stations reduces interference and improves throughput by selecting the most efficient link.

UE-specific non-orthogonal codebooks reduce peak-to-average power ratio, resolving multi-user interference and decoding accuracy trade-offs.

A backscatter wake-up radio terminal transmits scheduling requests using low-power reflection to coordinate data transmission slots.

Electric power controller calculates arrival start timing to end signal processor sleep states before data units arrive.

Communication control device calculates cumulative interference power for synchronized groups to determine allowable transmission margins.

Applying beamforming weight vectors to pilot and data channels reduces interference to other cells while maintaining transmit power constraints.

A data retransmission method uses HARQ feedback mode to control timer activation.

User equipment triggers discontinuous reception configuration updates based on mobility speed and wake up signal settings.

Dynamic semi-persistent scheduling reallocates unused resources from early terminated VoIP signals via multi-user MIMO to boost network capacity.

A rake receiver adjusts active finger count based on captured energy metrics to minimize processing load.

Extended frames synchronize station updates, resolving asynchronous wake-up issues caused by channel interference.

Open loop power control parameters apply to separate transport block groups in wireless uplink communications.

Dynamic pilot signal power adjustment minimizes interference and handover attempts from unauthorized users while maintaining adequate indoor coverage.

A multi-power signaling device selects transmit power levels to optimize RF signal range and interaction with nearby attractions.

Wireless device adapts NB-IoT measurement procedures based on cell synchronization status, reducing radio activity time and extending battery life.

A shared address allows one wearable device to perform connection setup on behalf of the group, reducing signaling overhead and latency.

User equipment adapts discontinuous reception cycles to traffic patterns, reducing signaling overhead while maintaining battery life.

Road-mounted beacons enable periodic position monitoring that reduces battery drain during engine-off periods while maintaining geofence tracking.

Allocates PHICH group energy by channel conditions, resolving insufficient power for terminals with poor signal quality.

Determines reference values to evaluate beam change conditions and adapts radio resource management measurements.

A base station retransmits paging messages to radio terminals configured with extended discontinuous reception cycles.

A control plane entity pre-sends terminal context data to access network devices during idle mode.

Base station selects initial beams using user equipment location and heading information to reduce beam sweeping delays.

Terminal manages uplink transmission timing advance offsets across multiple cell sets to coordinate signal scheduling.

A radio communication apparatus autonomously adjusts transmission power based on peripheral device density to stabilize inter-vehicle links.

A station dynamically adjusts active wireless chains to balance performance and power usage.

A centralized wireless network manages multi-room properties using Zigbee routers and gateways.