Network Traffic/Resource Management TRIZ Cases

Dynamic slice control switches terminals between shared and exclusive 5G network slices to preserve service quality under priority-based requests.

DSCP marking on a dedicated IPsec security association lets UE-initiated QoS changes be authorized under the SLA and mapped to supported flows.

Interference-aware performance correction helps select the better wireless link and stabilize communication between multiple radio sections.

Predicted link quality and centralized route selection help multi-layer NTN traffic meet bandwidth, latency, and jitter targets.

Separate uplink resources for a buffer status report and its indication improve reporting flexibility and radio efficiency in 5G/NR.

Distinct egress RLC channel mapping lets a UE relay separate multiplexed traffic and route data reliably to the intended destination UE.

PSIHI-based marking lets SMF and RAN maintain PDU set traffic handling during NG-RAN changes without separate QoS parameters.

Multiple traffic-specific dictionaries compress uplink packets with lower latency, higher throughput, and fewer dictionary updates.

Dynamic traffic-to-link negotiation lets multi-link devices match traffic types to network conditions, improving throughput and lowering latency.

Automatic APN/DNN substitution uses subscriber profile checks to steer NPN and PLMN access without manual changes or connectivity errors.

ICF and ICR frame formatting adds unavailability signaling so wireless stations can share coexistence information, cut latency, and improve throughput.

Pre-shared key and association data let a wireless terminal roam between access points without disconnection while balancing multi-link traffic.

AI model-aware QoS settings add computing power and latency requirements to traffic flows, helping networks better satisfy AI service needs.

Preset-service BSR triggering lets terminals report buffer status earlier, improving XR scheduling timeliness and reducing transmission latency.

Store only needed uplink signal configuration data in user equipment to cut memory overhead without keeping every network-specified item.

Updates the PDCP state variable from discarded data count values to prevent packet loss and keep transmission synchronized.

Idle baseband capacity is reallocated across ORAN cell sites through pooled vDUs, improving utilization, scalability, and QoS.

Congestion and QoS updates are sent through user plane tunnels during RAN transfers, keeping flow state current without excess core signaling.

Multiple SR resource configurations let a UE match logical-channel QoS, cut uplink request latency, and avoid repeated SR waste.

Network-guided gap skipping lets 5G user equipment send or receive buffered traffic during measurement occasions to cut latency and power use.

AA-NAPIs let applications adjust network service levels in real time, improving session QoE while avoiding always-on premium costs.

FDM mapping assigns multiple TCI states across CORESET frequency resources to improve downlink control channel reliability and channel estimation.

Undetected messages are copied into later wireless frames with varying retransmission counts to improve QoS without breaking delay limits.

Scene-aware node selection and on-demand UE instancing let one base station support diverse 5G scenarios with lower resource waste and cost.

When a 5G network slice is congested or misses SLA targets, changing the slice and PDU session anchor preserves continuity during mobility.

Different PDCP discard timers for voice and silent frames free channel resources and reduce lag or one-way audio in voice bearers.

Terminal feedback on conflicting multi-SIM time units helps the network retain usable gaps, reducing waste and protecting throughput.

Wireless 60 GHz fronthaul replaces fiber installs to deliver high-throughput, low-latency links with faster, more flexible 5G deployment.

Combining sub-6 GHz and mmWave hops lets a control node balance penetration and bandwidth while keeping routes stable as conditions change.

Separate search space settings for each numerology help user terminals decode downlink control reliably while improving throughput.

Removing Ethernet padding before air interface transmission saves radio resources and preserves protocol-compliant packet handling.

Registers low-latency and preemption needs in Wi-Fi traffic flows so access points can prioritize event-based data with reliable response.

Configured PDCCH monitoring sets and PDSCH group indication streamline HARQ-ACK generation, improving scheduling reliability with manageable complexity.

Node-level PFCP deletion messages and session retention signaling keep CP and UP session states aligned after entity or path failures.

Grouped CIR tap feedback cuts indication overhead in UWB communication by reporting selected tap ranges instead of individual taps.

A decoupled rules engine lets operators customize RRM, carrier aggregation, dual connectivity, and handovers without hardcoding logic into RAN software.

Iterative pre-emptive BSR lets IAB nodes cascade uplink requests across backhaul hops, cutting latency and reducing wasted grants.

Service restriction signaling handles CS call requests to PS-only users, reducing network load while preserving emergency support.

Predicting PDCCH aggregation degree and transmission location helps terminals avoid blind detection and cut power overhead.

Pre-allocated retransmission resource units let a WLAN access point resend errored frames in the same transmission opportunity, cutting latency and overhead.

Automated performance-index feedback ranks candidate wireless parameters with an E-greedy approach to cut manual tuning time and improve accuracy.

Coordinated multi-AP channel sharing uses buffer and latency feedback to cut wireless delay and improve resource utilization.

Configurable gap bitmaps and gap lengths let UEs measure NR and LTE layers with less traffic interruption and better cross-layer compatibility.

Timed transmission of a resource set helps D2D terminals avoid overlapping selections, reducing interference and improving utilization.

RAN-aware ATSSS steers traffic across 3GPP and non-3GPP access using real-time rate and latency measurements to improve 5G resource use.

AP-shared TXOP parameters let peer devices follow bandwidth and puncturing rules, avoiding violations and wasted wireless capacity.

Mode-specific target BLER settings use feedback channel reliability to balance URLLC service availability and radio resource use.

High-priority ACL payloads are sent inside BLE CIS events to cut control-message latency and simplify link scheduling.

Coverage-based discovery pools help UEs find and reselect relay UEs with lower collision risk, reduced latency, and better spectral efficiency.

RQI-marked packet handling lets the base station apply active uplink QoS rules with timers and UE status to cut processing load and battery drain.