Signal Allocation TRIZ Cases

Dedicated PRACH resources let UEs request uplink grants without repeated contention-based access, cutting delay and signaling overhead.

Multiple PRACH transmissions across time- and frequency-multiplexed ROs improve uplink coverage and access detection in weak signal areas.

Single-DCI scheduling across multiple cells cuts NR control overhead while enabling dynamic Tx carrier switching for better throughput and spectrum use.

Smaller CE-level DCI fields balance PRB and repetition assignment, cutting UE active time and power use in narrowband PDSCH reception.

Dynamic relay UE signaling activates or deactivates direct and indirect multi-path transmission to improve reliability without wasting power.

Preconfigured reference signal resources keep CSI accurate during antenna or power changes, reducing retransmissions and uplink overhead.

Separate SBFD and non-SBFD SRS resource sets clarify uplink sounding when resources overlap downlink subbands or guard bands.

A shared LTE-mapped control region carries NR PDCCH alongside LTE CRS, freeing more resource elements for NR PDSCH in DSS.

Enhanced WAB-MT signaling supplies local and neighbor base station IP addresses early, speeding Xn setup and handovers in 5G/6G coverage gaps.

Timing-based UE rules resolve overlap between configured and dynamic PDSCH, improving predictability and network scheduling flexibility.

An SMR pod uses multi-network IP attachment and NAT to enable SCTP multihoming across Kubernetes services without losing load balancing.

When multiple PUCCHs overlap PUSCH time resources, UCI is multiplexed onto PUSCHs or overlapping PUSCHs are skipped to avoid conflicts.

Two-stage sidelink SCI decoding uses first-stage control data to limit second-stage attempts, cutting V2X processing load and latency.

UE protocol indication in session setup lets the network align MA PDU resources for clearer traffic steering, switching, and splitting.

Task-based regularization lets WTRUs train AI/ML models to meet task thresholds, improving CSI compression, estimation, and vendor interoperability.

Selective CSI reporting on earliest PUSCH repetitions across spatial filters improves uplink efficiency, coverage, and latency.

Dynamic CSI Type I/II selection improves channel reporting accuracy while limiting UE computation and signaling overhead.

Event- and timer-triggered CSI reporting cuts uplink control overhead while keeping beam information timely for better UE transmission decisions.

When CSI trigger signaling overlaps with PUSCH, the UE prioritizes uplink transmission based on UL-SCH data to cut latency and waste.

Preconfigured random access modes help terminals identify SBFD uplink resources for PRACH and uplink transmission, cutting delay and improving capacity.

Dynamic NR subband allocation enables simultaneous uplink and downlink in unpaired bands, improving coverage, capacity, and latency.

Counter-based monitoring of linked PDCCH candidates cuts blind detections, lowering decoding complexity and resource overhead.

MAC CE activation of two TCI states lets a wireless device use a fixed first-state rule for SFN control repetition with lower interference.

A relay UE forwards DCI over sidelink with search space information to improve PDCCH reliability and resource allocation under interference.

Repeated DCI sets a reference start symbol for PDSCH scheduling, reducing interference and data loss in mixed 5G service traffic.

Spatial relations tied to PUCCH, SRS, and PUSCH resources help manage full duplex modes, improve CLI measurement, and stabilize uplink reliability.

Frequency offsets and subband scheduling separate overlapping PUSCH resources in SBFD, cutting interference while improving latency and coverage.

By letting RedCap UEs use a subset of shared CORESETs, base stations preserve scheduling flexibility without wasting bandwidth.

A smaller secondary NR bandwidth part lets reduced-capability UEs receive control and data with lower power use and less complexity.