Network Traffic/Resource Management TRIZ Cases

An O-ICC control loop coordinates O-RAN cloud deployment, scaling, and updates to cut latency, overhead, and resource waste.

Per-class shaping rates are adjusted from wireless link conditions to prevent congestion packet loss and keep QoS stable in uplink transfer.

Uses UWB and guaranteed timeslots to keep multi-channel wireless audio stable despite 2.4 GHz Wi-Fi congestion and dropouts.

Unified Network Assistance metrics align RAN and application-layer reporting to support adaptive streaming and reduce buffer stalls.

Early re-evaluation of reserved NR sidelink resources detects preemption before transmission and enables timely reselection to avoid collisions.

Selective HARQ feedback by logical channel improves sidelink retransmission efficiency while preserving reliable direct UE-to-UE communication.

Dynamic DSCP assignment in the 5G user plane uses per-flow bandwidth measurement to improve packet priority control and QoS handling.

Dual mapping of MBS QoS flows to MRB and DRB improves transmission continuity and reduces packet loss through bearer redundancy.

Using only a subset of satellite ephemeris parameters cuts signaling overhead and latency while preserving location and velocity estimation.

UE-reported delay budget and codec robustness help the access node adjust radio resources faster during multimedia telephony sessions.

Compares load consistency across multiple network locations to detect anomalies without baseline data collection after configuration changes.

Pre-establishing a target PDU session before release helps DualSteer devices maintain continuity during LTE and NR network transitions.

An Application Definition Function lets apps request standardized QoS and resource allocation across 5G slices, improving UE connectivity.

Pre-reserved PCell/PSCell configurations let UEs switch cells when conditions are met, cutting signaling overhead and handover interruption time.

A UE weighs relay delay offset against remaining delay budget to choose direct or relay transmission for low-latency XR traffic.

Weighted channel assignment uses external authorization, device capability, power, and interference data to improve cellular bandwidth use.

Separating L4S and non-L4S traffic into capability-aware PDU sessions cuts congestion packet drops and improves wireless flow reliability.

Measured device metrics predict video traffic after bandwidth caps are removed, helping ISPs allocate network capacity more accurately.

Embedding service characteristics in DL data and feedback cuts signaling overhead, speeds PDU burst scheduling, and enables early packet loss detection.

Dynamic queue-aware bandwidth control adjusts per-device allocation and packet priority to keep critical wireless links stable under congestion.

A split UMAC with multiple lower UMAC links maintains WLAN connectivity across access points, reducing roaming interruptions.

A WLAN AP negotiates management frame QoS categories so critical control traffic stays reliable without degrading data frame QoS.

Direct RAN QoS signaling lets XR endpoints adapt packet bitrate in real time to cut latency, ease congestion, and sustain user experience.

Packet timestamp fields and protocol-based configuration let wireless devices group packets into one data unit for better traffic handling and QoS.

Partial ciphering from octet 7 protects EMM transport data while limiting overhead in CIoT EPS control plane transmission.

A shared UL/DL packet format splits subband signaling and RU allocation data to cut control overhead while preserving flexible frequency scheduling.

ECN marking tied to radio network delay helps wireless L4S traffic cut queuing and buffer issues for better latency-sensitive performance.

Preconfigured PUCCH and PSFCH resources with offset signaling let PC5 sidelink terminals send control-node feedback reliably with less waste.

HTTP POST join notifications let SNRM clients share MBS session readiness with VAL servers for better 5G multicast resource management.

Pre-allocated downlink resources and node feedback keep ambient IoT intermediate-node transmissions aligned and coordinated.

Network entities signal congestion state and adapt sending rates with application-layer FEC to curb packet loss and sustain wireless transmission.

A custom HTTP notify method sends target slice configuration during inter-EDN mobility to keep VAL services continuous with less disruption.

Segmented preamble fields and RU allocation signaling cut control overhead while preserving flexible frequency scheduling and robust decoding.

An IoT-based auction protocol matches donor and requestor ecosystems to share surplus data resources while keeping allocation controlled.

Groups similar LTE and 5G network nodes, then applies prevalent settings to cut misconfigurations and improve quality of service.

Cloud-based traffic routing and SIM or eSIM profile control enable secure switching between public and private cellular networks.

Preconfigured QoS flow parameters across NG, F1, E1, and Xn help gNBs schedule PDU bursts with lower latency and less signaling overhead.

PDCP discard timers and frame-aware channel prioritization improve XR traffic handling by reducing wasted transmissions in 5G and 6G links.

Session-level traffic monitoring isolates overloaded 5G core sessions, protecting producer NFs without throttling innocent users.

Bursty low-latency data is inserted between A-MSDU units using lifetime-aware resource preemption without breaking non-low-latency transmission integrity.

Reporting unused configured grant transmission occasions lets the base station reallocate capacity, reducing waste and terminal interference.

Pre-provisioned URSP rules let user equipment match current multi-network connectivity and steer traffic with lower signaling load.

Pre-configured HARQ feedback disablement lets NTN terminals avoid long RTT acknowledgement delays and improve data throughput.

Predefined TXOP sharing groups coordinate announcement, request, and response messages to improve low-latency Wi-Fi transmission efficiency.

Timing-correlated PDU set aging lets a WTRU discard outdated data, reducing transmission overhead and unnecessary resource use.

AI-based TID-to-link mapping lets an AP MLD predict link assignments, reducing negotiation delay and protecting delay-sensitive traffic.

A unified LTE-NR sidelink request and allocation scheme lets base stations schedule multi-RAT UE traffic with fewer conflicts and less overhead.

By tying uplink HARQ response timing to terminal processing time, the base station can avoid unrealistic NR-V2X sidelink reporting.

Master node identifiers let a network node split QoS flows across two nodes, stabilizing 5G coverage without heavy dual-connectivity complexity.

Relay and network state messages help a remote UE choose a suitable relay and establish a more reliable sidelink connection.

A base station estimates terminal buffer data volume using service characteristics to improve scheduling accuracy.

A bearer reconfigures Quality of Service levels proactively to maintain streaming media transmission during predicted coverage reductions.

Dynamic link adaptation updates modulation and coding schemes based on real-time interference, resolving reliability versus response time trade-offs.

Inspecting MPTCP subflow data ratios enables targeted bearer rejection or preemption, preventing network congestion in communication systems.

A probe-as-a-service platform delivers real-time measurement context to cellular network customers.

A traffic offload management system redistributes user equipment connections across network nodes to balance load.

N-carry operations assign node IDs in a logical tree topology, eliminating complex routing tables and simplifying dynamic network management.

An SDN controller selects terminal small cells to jointly process high-bandwidth services via pooled backhaul resources.

A base station generates fake communication data to obscure normal traffic patterns between terminals.

A translation node converts model deployment maps into network QoS parameters to distribute distributed AI models across communication networks.

Local IP allocation at the access point reduces core network traffic from migrant users while maintaining security through staged authentication.

Application service processes user data to determine a targeted experience flow, reducing navigation complexity.

A communication apparatus adjusts video data size based on round-trip time to maintain stable transmission.

Allocating non-overlapping transmission resources across time and frequency domains to minimize inter-cell SRS interference.

Peer devices adapt channel allocations based on traffic metrics, resolving bandwidth efficiency trade-offs in direct communication.

A spectrum controller classifies channel availability and sends routing data to a radio resource manager.

Switching centers mediate mobile handovers by generating security keys from source parameters, keeping secrets from the source station.

A multipath scheduler decouples network sub-flows to align their completion times at the receiver.

A network resource management architecture coordinates satellite and ground access points to achieve large-scale regional signal coverage.

A Multi-Link Relay Station generates multiple backhaul links for data transmission between communication stations.

Proactive resource reservation eliminates session establishment delays in push-to-talk wireless networks.

HeNB gateways select appropriate mobility management entities by processing explicit load balancing establishment causes, preventing ineffective off-loading.

A relay device forwards buffer status reports to a base station for uplink resource grants.

Arbitration apparatus resolves bandwidth conflicts by calculating priority-weighted allocations within available resource limits.

A gateway apparatus checks registration and establishment messages to identify emergency calls in mobile communication systems.

User equipment signals buffer occupancy to trigger network resource configuration, reducing data transmission delay.

A terminal device sends a scheduling request using a target resource to configure sidelink sending resources directly.

A signaling mechanism consolidates uplink control information onto a single component carrier to optimize radio resource usage.

A multilink wireless communication method manages low latency data units independently of conventional acknowledgment policies.

An adaptive MME selection method at the eNodeB dynamically adjusts routing based on real-time health checks.

Repeater nodes apply priority control and hash verification to process control packets, preventing tampering while allowing Wi-Fi coexistence.

Maps carrier QoS to WLAN traffic parameters to enforce service quality without increasing device complexity.

Reserving SC-FDMA symbols in uplink bursts creates time gaps for listen-before-talk access, improving channel success probability.

A low-latency network manages return-link bandwidth requests and schedules for satellite user terminals.

A communication device dynamically selects between 20 MHz and 40 MHz channels using clear channel assessment thresholds.

Dynamic BSR selection using padding bit thresholds reduces radio resource overhead while supporting more than four logical channel groups.

Dynamic activation and deactivation of NAIC assistance information reduces backhaul resource consumption while maintaining interference reduction performance.

A dynamic delay scheduling method binds consecutive voice packets to reduce control channel overhead while maintaining high modulation levels.

A network node determines whether it is the destination for a data packet at the adaptation layer to process the payload correctly.

Communication management resource allocates a wireless channel to a substitute station.

A demand-driven priority data structure schedules data units based on node connectivity and significance factors to optimize dissemination.

A mobile device logs consecutive connection failures and reports them to the network for cell reselection.

A base station identifies downlink NAS messages to prioritize control signaling over SMS traffic.

Reordering buffers sort out-of-order packets from the RLC layer, preventing RoHC context update failures during decompression.

A resource controlling device manages sequential lists of resource devices to handle vehicle requests and status updates.

Segmenting QoE metrics into simplified base station reports and comprehensive server streams reduces optimization delay while maintaining analysis precision.

A cloud service manager generates temporary SSIDs and passphrases to configure Wi-Fi devices without manual entry.

Session management function mediates between radio access and core networks to ensure service continuity during updates.

Probe servers manage stream parallelism via passive deep packet inspection, reducing computational complexity while maintaining real-time analysis speed.