Transmission Path Division TRIZ Cases

Terminal determines second time unit on switched carrier based on first carrier timing for seamless PUCCH transmission.

Terminal device prioritizes downlink control channel monitoring based on search space and DCI size to resolve decoding capacity limitations.

Consolidating separate scheduling messages into one unified downlink control information reduces control communication overhead and monitoring load.

Mapping data and reference signals to odd and even sequence elements lowers peak-to-average ratio, improving demodulation performance.

Full-Duplex Reference Signals configure UL and DL resources to measure interference, mitigating self-interference and UE-to-UE co-channel noise.

Master node selects between blind and threshold-based addition for secondary node connection based on user equipment type.

PDCCH orders indicate supplementary uplink carriers to resolve transmission band ambiguity and reduce latency.

Padding bits align user information field lengths across aggregated bands, resolving synchronization conflicts while maintaining area throughput.

Dynamic DCI adjustments refine quasi-colocation assumptions to mitigate interference in multi-TRP wireless networks.

Segmenting carrier bandwidth into independent sub-bands reduces guard band overhead, increasing usable sub-carriers and spectrum utilization.

User apparatus notifies base stations of primary cell duplex mode support to resolve control complexity in carrier aggregation.

UE sends L1 or L3 reports on an active SpCell to resolve deadlock where unknown PUCCH SCells fail activation due to missing timing advance data.

Segmented carrier configurations enable NB-IoT terminals to operate with new deployment mode combinations without requiring hardware upgrades.

Segmented monitoring spans with configurable parameters reduce latency and improve reliability for ultra-reliable low-latency communication services.

Dividing time-frequency resources into variable units enables dynamic TDD configuration to resolve uplink-downlink asymmetry.

Network device adjusts PRACH resource location based on configuration information to determine a second PRACH resource.

Mapping the random access preamble and third message to identical frequency regions simplifies connection establishment for high-speed wireless communication.

Wireless devices select optimal resource pools using channel busy ratio measurements below a set threshold, reducing overhead and processing delays.

Activates secondary component carriers based on specific service requirements to resolve inefficiencies in wireless resource utilization.

Dynamic selection of measurement time windows improves positioning accuracy while reducing latency and energy consumption in 5G networks.

Dual indicators manage cell states using single-bit legacy signaling and two-bit absolute control.

A transmission control frame generation device calculates average SNR values to set sub-carrier block configurations for adaptive data transmission.

A wireless transmitter superimposes spread control information onto modulated data signals within shared time-frequency resources.

Retuning to a union bandwidth covers active BWP and SSB, resolving congestion while maintaining spectral efficiency.

A base station adjusts PDSCH modulation order based on subframe slot timing to optimize data capacity in unlicensed bands.

Multi carrier frequency modulated spread spectrum system uses orthogonal subcarriers for data transmission.

A resource allocation mechanism identifies available uplink symbols for transmission in full duplex networks.

User equipment signals reception and transmission capabilities to the base station.

User equipment decodes transport blocks using capability-based data rate limits, resolving the trade-off between reception reliability and power consumption.

Segmenting configuration into direction and resource parameters resolves complexity trade-offs while enabling flexible spectrum utilization in 5G networks.

Positioning Enhanced PDCCH in the PDSCH region overcomes control channel capacity bottlenecks by utilizing time-frequency resources.

A reference signal transmission method configures a delay value to determine the time division location for demodulation reference signals within a slot.

A terminal control section constrains transmission processing based on subcarrier spacing restrictions to manage switching delays.

A communication device monitors physical downlink control channel candidates on a primary serving cell to schedule secondary cell data.

A DCI candidate indication message guides user equipment to locate physical downlink control channel candidates for efficient decoding.

A probabilistic storage algorithm compresses time-domain samples into power bins and activity windows.

Applying cyclic shifts to UCI symbol sequences enables simultaneous HARQ-ACK and SR transmission, resolving resource conflicts.

Transforming complex electromagnetic signals via configuration information removes redundant data, reducing radio transmission resource consumption.

A positioning reference signal method uses random number-based resource element allocation patterns to minimize interference between adjacent cells.

Mobile station transmits aperiodic sounding reference signals based on specific downlink control information parameters.

Distributing scheduling requests across primary and secondary cells reduces primary cell load while maintaining manageable complexity.

Multi-stage channel frequency response estimation combines least squares with frequency-domain smoothing and decision-directed detection.

Signaling changed semi-persistent scheduling parameters via sidelink control information to manage aggregated carrier resources in vehicle-to-everything networks.

SRS resource set identifier conveys antenna panel information, reducing power consumption and radiation.

Explicit PBCH repetition status in handover messages eliminates UE hypothesis testing, reducing processing delay and memory usage during cell selection.

A wireless node selects demodulation reference signal sequences based on real-time signal quality metrics to optimize receiver processing.

Grouping uplink grants by sending moments allows the user equipment to adjust multiplexing order and avoid transmission delays for high priority data.

Segmenting data into codeblocks enables independent modulation and coding scheme selection to resolve frequency-selective channel variations.