Network Traffic/Resource Management TRIZ Cases

Adaptive uplink packet sizing uses real-time latency and throughput data to cut congestion overhead and improve 5G AR streaming.

Neighboring base stations coordinate uplink resource blocks and schedules to curb interference and improve 5G NR transmission capacity.

DIDO and MU-MAS let TDD users share active FDD spectrum, using idle uplink capacity to ease downlink congestion and raise throughput.

Multiple remaining time thresholds per logical channel group let terminals report buffered data delay more precisely for 5G and 6G scheduling.

QoS-aware relay signaling configures end-to-end sidelink bearers for source and target UEs, cutting latency and signaling complexity.

Multiple UE configuration sets are preloaded and switched as conditions change, improving AI beam inference flexibility with less signaling.

Semi-static logical channel priority shifts use discard timing and packet importance to cut unnecessary drops during wireless congestion.

Soft admission control and early QoS bearer notification reduce setup latency and signaling overhead while helping V2X services stay available.

Tracks unfulfilled data flows and alternative QoS for PDU sets so base stations can coordinate mixed-technology networks with better resource use.

A timer-based RLC AM discard scheme clears buffered PDUs after missing sequence numbers persist, reducing buffer load while preserving reliability.

Time-based measurement type selection lets terminals return accurate CSI promptly after updates, improving multi-antenna performance.

Shared-secret checks let wireless devices reject spoofed disconnect messages, blocking MAC stealer attacks and protecting secure sessions.

Preconfigured SR resource pools let a UE send delay information reports promptly, improving uplink scheduling and reducing buffered data loss.

Channel-state-based model switching helps UEs and network entities keep compressed communication reliable while limiting disruption and compatibility issues.

Grouping NTN terminals by time windows, reference locations, and distance thresholds reduces handover signaling storms and overhead.

By using discarded-data count values to update the PDCP state variable, the receiver avoids packet loss without waiting for missing packets.

Per-carrier DTX thresholds release weak sidelink carriers early, cutting V2X link-failure latency and base-station signaling overhead.

Removing the PDCP layer cuts protocol complexity and energy use, enabling weak-capability wireless devices to communicate efficiently.

Shared and cell-specific neighbor cell configuration cuts redundant NTN handover signaling, easing congestion and resource use.

Notification exchange through user plane tunnels keeps QoS and congestion updates aligned when flows or serving devices change.

Pre-switch congestion reporting lets the target access network notify the AF faster, improving rate adjustment after network switching.

Advance reservation of EDN resources helps edge application servers avoid deployment failure and reduce latency from first-come allocation.

Single-layer reordering and early radio bearer resumption cut LTE-NR packet duplication delay while preserving in-sequence delivery.

Packets are split across cores by session parsing, while unidentified sessions go to lighter-loaded cores to avoid overload and service interruption.

Configuration-based control lets NTN terminals use satellite store-and-forward only for suitable services or radio bearers, limiting latency impact.

A unified UE report scheme uses non-codebook precoding and PMI signaling to cut NR CSI overhead while preserving report accuracy and reliability.

V-PCF gathers PDU session capability data from SM-PCF and relays it to H-PCF to preserve URSP compliance during DNN or slice replacement.

Dictionary-based AI links paired wireless transmissions to train control decoding and improve accuracy across varying configurations.

Report information embedded in existing frames updates TID-to-link mapping with less reset overhead and faster multi-link assignment changes.

Adaptive PDCP discard timers map congestion levels and PDU set attributes to discard timing, easing 5G user-plane congestion while preserving QoS.

Coordinated QoS across UE relay links prioritizes critical downlink packets under congestion to sustain data rates and reduce delay.

Separate active and dormant carrier indications cut signaling overhead while keeping legacy carriers usable in multi-carrier wireless transmission.

Adds 802.1CB redundancy to Wi-Fi by tagging 802.11 frames and using parallel paths to keep time-sensitive traffic reliable with low latency.

A coexistence controller scans LTE-U/LTE-LAA signals and adjusts Wi-Fi AP power and detection thresholds to improve access and save battery.

Mapping PDU set attributes to required delivery percentages lets each QoS flow segment use tailored transmission control and avoid resource waste.

When a UE moves between cells with different QoS mappings, adaptive parameter alignment preserves service priority continuity and cuts signaling load.

Embedding MQTT messages into media streams lets CDNs deliver synchronized, secure messaging to millions of client media players.

Multi-layer UE identifiers in relay data units improve terminal identification accuracy while preserving efficient UE-to-UE relay communication.

Hierarchical QoS indicators in a digital twin coordinate tasks across multiple domains to deliver more accurate and flexible service guarantees.

Packet loss is used to identify dependent packet groups and stop forwarding unusable packets, reducing network load and decoding waste.

Split end-to-end QoS across relay UE links to improve resource allocation accuracy while limiting signaling overhead in wireless relay communication.

When unlicensed channels fail URLLC needs, silencing mini-slots frees licensed uplink resources and avoids eMBB interference.

Threshold-based DSR triggering lets a terminal report urgent logical channel group delay for more accurate low-latency radio resource allocation.

Explicit type signaling lets RAN and UPF distinguish congestion status from packet-marking data for clearer 5G congestion handling.

Shared virtual cells on one radio unit let the RIC shift users between DUs, enabling server maintenance and load balancing without dropped connections.

Using LBT-based autonomous uplink, UEs send HARQ and channel reports on low-band resources when high-band NR-U uplink is constrained.

FDM interlace separation lets UEs reserve sidelink COT resources outside occupied periods, improving utilization while avoiding interference.

Real-time event analyzers verify cell outages before compensation, reducing faulty reconfiguration and protecting network reliability.

A QoS index lets wireless stations exchange predefined QoS settings with less signaling overhead, improving high-throughput multi-link data delivery.

An AI-driven SDDC adapts beam formation, bandwidth, and radio point selection to launch channels faster and handle traffic surges.