Power Management TRIZ Cases

Base stations configure flexible power-saving modes and transmit wake-up signals to mobile terminals.

A user terminal manages PRACH transmission power using PHY and MAC layer processing sections to coordinate simultaneous uplink signals.

A wireless power management method adjusts redundant packet reception to limit battery discharge.

Dynamic cell state management monitors user equipment behavior during low traffic periods to balance energy savings with reliable coverage quality.

Dynamic cell shaping beam adjustment distributes traffic load, resolving interference issues at cell edges while extending micro access node capacity.

Grouping PUCCH resources via a MAC control element reduces signaling overhead while maintaining accurate spatial settings.

Adjusting OFDMA frame boundaries ensures frames arrive within the cyclic prefix, reducing asynchronous interference and improving signal quality.

A peer to peer wireless terminal uses wide area network uplink and downlink air link resources for signaling operations.

Enhanced synchronization signal identifies cell identifiers via Zadoff-Chu sequences.

QR decomposition partitions MIMO signal constellations to determine bit-level probabilities, reducing computational complexity without specialized hardware.

A user equipment monitors a broadcast channel trigger message to activate paging reception.

A wireless access node allocates resource blocks using transmission power headroom reports from devices.

Terminal equipment evaluates cell reselection when essential system information fails to acquire on unlicensed frequencies.

Signaling per-resource block power offsets to user equipment reduces excessive power consumption in physical sidelink feedback channels.

A mobile station assesses communication service levels across multiple interfaces to determine optimal power mode transitions between active and inactive states.

A channel occupancy identifier inserted into cellular transmissions enables Wi-Fi nodes to detect reserved spectrum.

A wake-up radio parses duration fields in frames to schedule primary radio activation.

A mobile device negotiates paging channel monitoring frequency with access nodes based on application tolerable latency values.

A network entity selects SISO, SIMO, or MIMO modes based on channel conditions and hardware constraints.

A mobile station adjusts active set parameters based on remaining battery power to conserve energy.

A transmitting UE sends an automatic gain control signal in a specific resource block to identify the target receiving device.

A wireless device suspends time tracking to enter a deep power conservation state.

Dynamic configuration of wake-up signal monitoring periods reduces unnecessary device wake-ups and lowers power consumption.

Adding training tones to the L-SIG field boosts data capacity while managing power distribution balance.

A radio base station manages interference information transmission based on its own communication load.

A multi-SIM communication apparatus compares received signal strengths from distinct wireless networks to establish connections via the optimal subscriber identity card.

A combo-endpoint device schedules frequency-hopping connections using distinct time windows.

Segmenting radio functions into dedicated monitoring occasions prevents missed paging signals during mobility.

A terminal transmission unit coordinates with a base station discontinuous reception function to reduce receiver power consumption.

A location-aware power management scheme adjusts ambient noise trigger profiles using sensors to optimize always-on voice recognition systems.

Wireless devices process incoming signals to determine concurrent transmission parameters for simultaneous data exchange.

Context-aware location tracking reduces GPS energy consumption by using cellular and WiFi data for proactive activity notifications.

No-TX mode suspends transmission power control commands during idle periods, reducing interference and conserving battery life for intermittent traffic.

A power management method uses dependency weights to coordinate state changes across network services and functional components.

Wireless device modifies downlink signal quality reports to trigger network handovers during uplink power limitations.

Segmented multi-resolution packets filter unintended transmissions before payload processing, reducing overhearing energy waste in wireless sensor networks.

A wireless network interface card maintains coupling with a remote device using periodic packets to detect wake-up signals.

A power saving controller adjusts receive and transmit mode durations in mobile stations to optimize energy usage.

A terminal device adjusts interaction frame lengths dynamically to reduce power consumption in Wi-Fi direct connections.

Extended periodicity of the cell discovery signal reduces eNB power consumption and pilot pollution in dense small cell networks.

Receiving stations configure target wake time periods on secondary links via beacon elements transmitted over primary links.

Configuring periodic transmission windows reduces power consumption while maintaining reliable sidelink synchronization and uplink resource efficiency.

An energy management interface coordinates wireless circuits via a shared SAR sensor to adjust transmission power dynamically.

A telecommunication controller manages small cell base stations by calculating signal attenuations to select active subsets.

Target configuration information separates Uu and sidelink discontinuous reception modes to resolve energy efficiency versus service requirement compatibility.

A wireless signal apparatus broadcasts location marker data to wake up an elevator service request application on a mobile terminal.

A communication control method enables early data transmission during the random access procedure.

A mobile phone network node implements discontinuous transmission across symbol, subframe, and frame levels to adapt resource allocation dynamically.