Power Management TRIZ Cases

Setting the more data field to zero prevents network allocation vector blocking, ensuring low-latency transmission during scheduled periods.

A mobile station terminates reception of non-targeted wireless transmissions by checking the MAC header destination address, reducing power consumption.

A mobile station transitions to a higher power state only when necessary to receive neighbor cell identification messages.

Segmented control channel monitoring reduces downlink latency while maintaining energy efficiency in ultra-low latency applications.

An intelligent power source manager coordinates task execution timing to conserve energy in mobile devices.

Transmitting UE maintains channel occupancy time using filler transmissions during empty PSFCH occasions.

A Packet Data Network-Gateway processes downlink data for terminals in power saving mode by deleting or storing packets based on connection pause requests.

Sequential wake-up signals activate standby relay circuits, reducing power consumption during idle network periods.

A communication control device allocates transmission power to secondary systems using a dedicated power allocation unit.

Segmented cyclic prefixes reduce inter-symbol interference in outdoor WLANs while preserving backward compatibility with legacy systems.

A user equipment selects SC-FDMA or OFDMA waveforms based on frequency resource position to manage transmission power levels.

An access node generates an RRC command to configure a UE for detecting TRS transmission bursts.

A proxy unit reshapes streaming data into high-bitrate bursts to optimize radio interface utilization.

Dynamic reconfiguration of preconfigured uplink resources resolves the contradiction between uplink reliability and network flexibility in congested scenarios.

Segmenting carriers into timing advance groups reduces management complexity while maintaining orthogonality between uplink symbols.

Segmented primary messages indicate system state changes to wireless devices, reducing continuous processing load and power consumption.

Radio access node re-maps four logical antenna ports to three physical antennas using a selected mapping matrix.

A first node selects frequently used parameter values to provide accurate power offset settings, reducing energy consumption and end-user delay.

Relay access points assign new identifiers to end-stations and manage traffic indication maps to extend coverage in sub-1 GHz wireless local area networks.

A terminal device transmits uplink reference signals through the physical antenna port with the highest power amplifier.

A synchronization signal block embeds a system information indication to let user equipment identify dedicated data early.

A base station dynamically adjusts cell antenna configurations to regulate power consumption while maintaining user communication.

An end node adaptively sets transmission energy levels by measuring beacon signal power and adjusting modulation parameters.

A base station schedules sounding reference signal resource sets based on user equipment receive antenna port counts.

A multi-link wireless device transitions between sleep and awake states to manage data transmission across links.

X2 interface coordination enables macro and pico base stations to share component carrier status, reducing interference while maintaining load distribution.

A receiver device transitions to a lower power state mid-packet reception to conserve energy and incrementally reconstruct wireless signal packets over repeated transmissions.

User equipment detects NR interface connectivity issues and switches from SCG bearers to MCG bearers, preventing data loss during dual connectivity failures.

A power control mechanism steers wake-up signals to smaller processor cores.

Scaling onDurationTimer by repetition counts reduces RRC signaling overhead while maintaining downlink reliability.

Dynamic DRX timer adjustment synchronizes wake cycles with data arrival patterns, reducing packet loss and power consumption for delay-sensitive traffic.

A communication apparatus sets a dynamic timeout threshold based on calculated packet intervals to detect data flow end states.

An adaptive transmission power allocation method distributes energy across geographically distributed sub-arrays using large-scale fading information.

Time-frequency spreading distributes femtocell signals over idle spectrum to lower transmission power and reduce macrocell interference.

A wireless area information server detects narrow-band service areas and estimates communication quality to guide terminal connections.

A terminal device configures discontinuous reception cycles to monitor physical downlink control channels during active periods.

A discontinuous transmission mechanism monitors voice activity to switch between data and zero-payload packets.

A mobile electronic device detects user intentions through integrated sensor data to automatically transition between operation states.

Assigning distinct transmission power levels to grouped subcarrier blocks in cellular wireless systems.

Licensed 6 GHz devices detect unlicensed station identifiers to prevent interference with protected networks.

A service capability exposure function conveys SMS messages to a mobility management entity using unique identifiers without establishing a packet data network session.

Low power synchronization signals maintain network time alignment, reducing periodic paging monitoring overhead and power consumption.

A controller adjusts transmission power levels to determine device distance and enable proximity recognition.

A position estimation apparatus calculates device location using signal reception strength and geometric constraints.

A mobile device calculates a time-to-fence value to schedule periodic GPS activation for location tracking.

A base station controller estimates transmission power by observing subscriber data ingress over defined observation windows.