Transmission Path Division TRIZ Cases

Synchronizing punctured sounding and data in one TXOP helps Wi-Fi links reduce interference, track channel changes, and avoid data corruption.

UE capability signaling uses paired PDCCH configuration values so networks can configure control reception across newer and older standards.

Separated SRS transmissions on the same antenna port create a clean time gap for more reliable Doppler estimation and pre-compensation.

Dynamic LO-based switching across intra-band uplink carriers enables MIMO throughput gains while limiting intermodulation and avoiding RRC delays.

Multiple initial downlink BWPs let each terminal choose a better fit, improving random access efficiency and easing congestion.

Common TCI mapping across beams, carriers, cells, and channels cuts signaling overhead while improving power use and spectral efficiency.

An LBT gap between PUSCH repetitions enables hopping across unlicensed sub-bands, improving uplink diversity and spectral efficiency.

A modified TDRA table enables TBoMS transmission on special time slots, improving uplink resource use and coding efficiency.

Preconfigured CSI-RS and TRS let the UE set AGC and synchronize quickly, cutting 5G NR SCell activation latency.

Maps RIV-based RB allocation from a smaller first BWP to a wider second BWP, extending coverage without added signaling overhead.

Control signaling maps beam and bandwidth part indices so UEs can switch beams with fewer configured bandwidth parts and lower overhead.

Configurable OFDM cyclic suffix length helps suppress self-interference, cross-link interference, and ISI to improve full-duplex throughput.

During RRC inactive small data transmission, measurements are suspended to cut uplink waste and interference while keeping latency low.

Scrambling-mode indexing lets OFDM side information and data blocks be sent reliably while lowering PAPR and limiting distortion.

Maps PDSCH and DMRS onto usable NR resources while avoiding restricted blocks, improving downlink resource use without harming reception.

Separate sidelink configuration enables adaptive resource pools and bandwidth parts to cut collisions and latency for out-of-coverage terminals.

DCI-linked SRS configuration adapts bandwidth and ports to channel conditions, improving scheduling and beamforming with low overhead.

Minimum frequency separation lets a secondary node choose unlicensed channels that avoid UE self-interference during NR-U dual connectivity.

Maps sidelink sub-channels to RB sets around guard bands so low- and high-capability UEs can share unlicensed spectrum efficiently.

A first-symbol redundancy scheme enables decoding across aggregated sidelink slots, improving UE response handling with lower overhead.

Multi-bit BWP indication enables simultaneous frequency resource activation, cutting switching delay for concurrent wireless services.

Advance switch-time signaling lets multi-USIM terminals change networks without dropping RRC, reducing traffic interruption on serving cells.

Preconfigured BWP switching patterns let UEs handle sidelink traffic with less control signaling while improving resource use and power performance.

Aggregating positioning SRS across multiple carriers improves 5G UE location accuracy while reducing latency through coordinated uplink scheduling.

Extended UE capability reporting maps DC carrier locations by component carrier instead of each BWP, cutting signaling overhead and aiding 5G NR scheduling.

Shared PDCCH scheduling with HARQ feedback helps groupcast and unicast use wireless time and frequency resources more efficiently.

Redundant subcarriers, head samples, and tail samples help UW-OFDM multiplex users efficiently while limiting power regrowth and improving reliability.

Maps PSFCH feedback to carrier-linked resource pools in NR V2X sidelink, improving throughput while reducing conflicts and interference.

MAC-CE updates SRS trigger lists faster than RRC, improving channel estimation and resource allocation in dynamic 5G NR scheduling.

Separate inverse Fourier processing across frequency-domain blocks cuts inter-subband interference while preserving spectral efficiency.

Unified sidelink BWP activation and deactivation keeps terminals and networks aligned, reducing packet loss in 5G NR data transmission.

Unified RRC and DCI signaling adapts PDCCH search space monitoring to traffic density, cutting 5G UE power use without losing reception reliability.

Dynamic PHY header puncturing signals 20 MHz subchannel availability, improving WLAN bandwidth allocation and legacy-device compatibility.

DCI-triggered SRS timing and frequency segmentation make uplink sounding more adaptive while reducing collisions, overhead, and interference.

Flexible RIM-RS sequence, frequency, and time resource selection improves remote interference measurement under uncertain delay and distance.

Dedicated control channels let WTRUs handle non-adjacent carriers and multiple access points while reducing interference and preserving synchronization.

DCI-driven group beam updates cut signaling overhead and latency across component carriers while maintaining practical beam accuracy.

L1 on-off commands speed Scell activation and deactivation, cutting PDCCH monitoring delay and power use in carrier aggregation.

Dynamic OFDM symbol selection for SRS improves uplink beam management at mmWave frequencies while limiting overhead, latency, and complexity.

A single DCI schedules shared-channel transmissions across multiple slots, cutting control overhead while keeping flexible resource allocation.

Segmented and selectively repeated Wi-Fi PHY headers improve outdoor range and decoding reliability while limiting header overhead.

Bitmap-based PUCCH capability reporting lets UEs declare grouping, location, and numerology support across NR-CA and NR-DC bands.

MAC control elements add dormant and fast activation states for SCells, improving carrier aggregation response while limiting UE power use.

Separate MCS tables for SBFD subbands let the UE switch by slot condition, improving full-duplex DL/UL efficiency and throughput.

Shared radio units use semi-static and dynamic carrier time coordination so multiple operators cut deployment cost without losing service independence.

Unified frequency-hopping parameters align channel switching times and band positions to prevent signal loss in NR-lite transmission.

Tuple-based UE capability reporting sets per-slot and per-span PDCCH limits across serving cells to avoid excess blind detection and CCE monitoring.

Broadcasting multiple BWPs and SSB positions lets wireless devices spread initial access load across a cell, easing bottlenecks and improving capacity.

Multi-slot PDSCH scheduling limits blind DCI detection and keeps frequency hopping within available RB sets for reliable UE reception.

Scaling training signals by allocated subcarriers helps base terminals keep AGC accuracy while supporting simultaneous multi-terminal data transmission.