Power Management TRIZ Cases

Mobile station temporarily ignores power commands to create a detection window, preventing step cancellation and enabling accurate SIR target adjustment.

A terminal ignores PDCCH skipping on all serving cells when a scheduling request is pending.

User equipment allocates separate uplink transmission powers for multiple network nodes to manage simultaneous data transfers.

Base station distinguishes UAVs using dedicated chips from those using terminals through random access preamble analysis.

Configuring active period starting points for user equipment in discontinuous reception mode to optimize radio resource allocation.

An access device cross-references stored interface addresses to route wake-up commands to active equipment ports.

A low power wake up radio detects reference signals to trigger a secondary communication radio, reducing power consumption while maintaining responsiveness.

A cellular modem architecture divides uplink and downlink modules into separate domains for independent power management.

Wireless devices configure data radio bearer inactivity timeouts based on service characteristics to optimize resource usage.

A wireless relay device segments first wireless signals to determine power amplification and spatial domain filters for relaying.

Dynamic EIRP masks resolve static spectrum inefficiency by continuously updating power limits to match current interference and occupancy levels.

A terminal device determines maximum output power levels for overlapping uplink transmissions across different cell groups.

A low power sensor core processes wireless signals to conserve energy in mobile devices.

A wireless coexistence mechanism modifies transmission characteristics based on real-time channel conditions to mitigate interference between multiple networks.

A motorized transformer in an RF power splitter dynamically adjusts output ratios across wireless network sectors.

A universal reservation signal announces upcoming channel busy time to wireless devices.

A vehicle communication device transmits presence data only when the distance to another vehicle falls below a defined threshold.

A communication link scaling system deactivates inactive lanes to conserve energy.

Segmenting the random access procedure into two steps mitigates listen-before-talk failures and lowers access delay in new radio unlicensed networks.

A smallcell identifies target user equipments by measuring signal status parameters to adjust transmitting power levels.

Configures SL DRX timers per source and destination ID pair to skip idle channels, reducing power consumption while maintaining reliable data reception.

Base station power control adjusts handover decisions using neighbor cell load estimation to optimize network resource allocation.

A proxy host terminal monitors paging channels via a high-power interface to forward notifications to client terminals over a low-power link.

A power consumption control apparatus monitors energy levels and postpones actions to prevent battery drain.

Dynamic beam management reduces out-of-band emission interference with earth stations while maintaining reliable connectivity for mobile user devices.

Adjusting modulation order and power allocation for degraded subcarriers reduces bit error rates in optical OFDM systems.

A distributed antenna system assigns pseudo timing advance values to identify user equipment location per floor for targeted resource allocation.

A common observation receiver switches between transmitter and receiver signal spectrums to enable baseband feedback.

Dynamic signal routing directs RF energy across co-located antennas, expanding coverage to 100 kilometers while reducing the number of required towers.

Node B optimizes resource allocation and reduces interference by adjusting modulation schemes based on uplink CQI reports from receivers in Cell_FACH states.

Independent uplink and downlink selection optimizes data throughput by resolving simultaneous handoff constraints.

User equipment adjusts transmission power based on running applications to maintain specific absorption rate limits.

Receiving sidelink wake-up signal sequences enables user equipment to determine active status for discontinuous reception cycles.

Configuring wake-up radio MAC headers with adaptive address fields to optimize packet transmission in wireless LAN systems.

A power optimizer system reconfigures Massive IoT devices using machine learning clustering to manage operational parameters.

Stopping the Uu DRX timer upon sidelink-specific MAC reset requests reduces unnecessary power consumption and signaling overhead.

Base station sends uplink grants to user equipment in idle state, enabling direct data transmission without entering connected mode.

A network device determines reference signal quality using beam information provided by a terminal.

Broadcast messages identify cell types to prevent erroneous selection and connection failures in wireless networks.

A network node configures a discontinuous reception cycle to monitor information signals in varying time periods.

User equipment determines uplink transmission power from repetition count, balancing reliability and energy consumption in semi-persistent scheduling.

Decouples encoding and decoding timing adjustments in user equipment, performing re-synchronization during silence periods to preserve voice quality.

A mobile device adjusts telephony transceiver power using motion sensor data to detect body-worn or stationary placement.

Applies color temperature correction to screen flash lamps, resolving color shift issues during photography.

Embedded transceiver reduces channel hopping frequency when inside attenuating media, extending battery life while maintaining communication reliability.

Dynamic measurement gap configuration via ML prediction reduces unnecessary carrier switching and power consumption in 5G networks.

Codepoint mapping in control signaling directs wireless devices to directional profiles, reducing power consumption without increasing system complexity.

A wireless terminal processor manages sleep states to reduce power consumption in mesh networks.