Transmission Path Division TRIZ Cases

Configurable periodic transmission of synchronization signals and PBCH resolves inefficient resource usage in narrowband LTE systems.

Segmented muting patterns reduce interference with legacy LTE-A terminals while enabling efficient control signal transmission to new protocol versions.

Segmenting broadcast data into independent pipes enables flexible multiplexing across shared RF bandwidth while maintaining robustness for mobile reception.

A user equipment processor predicts pilot signal quality and data throughput to select an optimal component carrier.

A radio base station transmits measurement indication information to user terminals.

Decouples carrier raster from subcarrier grid to enable flexible RF carrier placement, reducing reserved subcarriers and improving spectrum usage efficiency.

Segmenting the modulation interval into subintervals allows dynamic voltage updates that prevent amplitude clipping and improve efficiency.

Segmenting wideband carriers into UE-specific bandwidth parts supports diverse user equipment capabilities without increasing system complexity.

Segmented SDR stages simulate inter-cell interference to verify network performance without increasing computational load.

A transmitting node exchanges control information to select a transmission scheme based on receiver capability.

Future scheduling messages inform user equipment about secondary component carrier data timing.

Dynamic DMRS pattern selection balances pilot overhead against channel estimation accuracy across varying vehicle transmission environments.

A network device adjusts Random Access Response message formats based on access type indicators to optimize bandwidth usage.

Aggregating PDCCHs with encoded CCE indices resolves control information overhead while enabling multi-carrier resource allocation.

Data transmission segments resource allocation across current and subsequent time slots to reduce latency in URLLC scenarios.

User equipment dynamically configures peak reduction tone patterns across subcarrier sets to minimize the peak-to-average power ratio of sidelink data signals.

A controller sets a second symbol as the reference for mapping phase tracking reference signals in temporally backward positions.

A channel allocation method assigns network resources based on node priority levels to optimize communication quality.

Base station configures available transmission resources with subset relations between time domain resources of different long-term control information types.

User equipment transmits measurement reports to receive signature parameters for random access across component carriers.

An electronic apparatus overlaps transmission periods of response frames from multiple wireless base stations to enable simultaneous reception.

User Equipment transmits beam management capabilities to the wireless network for inter-band carrier aggregation.

A flexible short TTI resource allocation mechanism uses a DCI bit field to indicate sCCE usage for data transmission.

Segmenting scheduling tasks into independent single-cell units enables parallel processing, reducing latency and complexity in carrier aggregation systems.

A carrier coordination device detects interference information and coordinates carrier use to optimize network performance.

Updated resource hopping patterns adjust time and frequency allocations via Latin square rearrangement to reduce collision probability in dense IoT networks.

A single downlink control information message activates and releases multiple resource sets across component carriers, reducing signaling overhead.

Dynamic secondary carrier activation reduces battery consumption and signaling delay while maintaining high uplink throughput.

Configurable protocol stacks activate bandwidth parts based on traffic load, resolving the trade-off between device complexity and network efficiency.

A PUCCH Format 3 uses DFT-based precoding to distribute modulation symbols across multiple SC-FDMA symbols for efficient uplink control information transmission.

Terminal switches physical downlink control channel monitoring between search space groups to reduce power consumption during idle periods.

A resource allocation algorithm manages spatial layers to optimize spectrum efficiency in multi-user MIMO networks.

Multi-distance symbol phase estimation corrects frequency offsets beyond Nyquist limits, improving accuracy in high-speed train scenarios.

Mapping CSI-RS to specific resource element groups reduces inter-cell interference while maintaining transmission diversity.

Dynamic signaling aligns uplink control and shared channel transmissions with variable downlink scheduling, resolving periodic report conflicts.

Base station selects handover thresholds using carrier aggregation policies and user equipment capabilities.

Semi-persistent scheduling configures uplink positioning reference signals to resolve resource multiplexing complexity in 5G NR systems.

A terminal calculates the frequency domain start position of a sounding reference signal resource within an uplink pilot time slot.

A synchronization signal block uses discrete Fourier transform spreading to reduce peak-to-average power ratio.

Pre-activating a target carrier bandwidth part eliminates deactivation and activation delays, reducing switching latency while managing multiple active states.

A user equipment selects wireless cells using load balancing circuitry to distribute connections across available network resources.

First communication device generates multi-user physical layer data units and control frames for orthogonal frequency division multiple access acknowledgments.

Dynamic uplink control channel carrier selection reduces system complexity while maintaining wideband communication.

Signaling informs the network of terminal frequency switches, preventing improper scheduling and reducing signal discarding.

A user equipment configures physical downlink control channel candidates using dynamic aggregation levels indicated in search space sets.

A user equipment configures transmission timelines using primary cell and secondary cell TDD UL-DL combinations to schedule uplink data and feedback subframes.

A configurable multiplexer couples local oscillators to multiple transmitting and receiving paths in a wireless transceiver architecture.

Transmitting association requests with distinct acknowledgement priorities reduces handshake overhead and improves channel resource utilization.