Network Traffic/Resource Management TRIZ Cases

Modular RAN capsules and a Liquidity Controller adapt computing resources in real time to meet delay constraints and changing traffic demand.

A ranging control message assigns UWB transmission slots so devices can exchange data in real time without Bluetooth switching delays.

Credential and RSSI-based node mapping replaces flooding in access control mesh networks to cut congestion and improve routing response.

A WLAN preamble uses an EHT-SIG-A subfield to signal 2048/4096 QAM, preserving standard compatibility while enabling higher throughput.

Multiplexing remote UE end-to-end bearers onto relay logical channels improves coverage and reliability while preserving QoS-aware resource allocation.

Group QoS parameters for shared wireless uplink transmissions cut signaling overhead and power use while preserving effective QoS control.

An AI model selects local or remote UPFs so 5G uplink data can stay near the DU, cutting latency for edge applications.

Local breakout in IAB networks shifts UE traffic to a local server, cutting multi-hop backhaul congestion, latency, and bandwidth load.

Separating traced and non-traced sessions into trace-capable and trace-disabled workers enables real-time tracing without degrading network processing.

Dynamic QoS flow and PDU set selection helps real-time video services maintain transmission delay under changing network and channel conditions.

Preconfigured resource bandwidths within an active BWP let full duplex UEs adapt bandwidth with minimal switching delay and higher spectrum efficiency.

A segmented PHY preamble uses legacy and universal signal fields to identify bandwidth, PPDU format, and punctured subchannels.

UE traffic profiles, reliability metrics, and carrier-set IDs let the base station assign SPS grants for duplicated V2X sidelink packets.

Service descriptions from a remote UE let the relay UE pre-configure PDU session QoS flows for accurate mapping and reliable network access.

A base station-linked offloading service matches uplink traffic to user plane instances, cutting edge deployment complexity and cost.

Pre-established DRBs and logical channel prioritization help 5G NR meet diverse QoS needs while reducing signaling overhead.

Reserved uplink resources let LTE-U user equipment perform LBT without blocking later transmissions, improving fair channel access on unlicensed carriers.

Required session attributes let remote devices choose compatible relay nodes faster, cutting signaling overhead and relay selection delay.

Weighted data rates and traffic caps let the RAN scheduler treat MDU FWA gateways more fairly without degrading service quality.

Aggregated RU, DU, and CU status data drives an interactive 5G dashboard that speeds fault identification and supports network uptime.

Multiple QoS parameter sets let terminals switch with service status changes, improving network matching while reducing resource waste.

Real-time backhaul delay monitoring lets the SMF and PCF adapt QoS and policy rules for satellite-linked 5G and 6G sessions.

Parallel RLC entities and per-cell MAC schedulers remove carrier aggregation bottlenecks, improving throughput while cutting processing time.

Multiple PDCP entities with separate keys keep duplicated data flowing through handover, avoiding service interruption and redundancy loss.

Golden-site clustering automates AP radio settings by matching similar operating conditions, reducing manual tuning effort and cost.

Terrestrial cells carry SR, BSR, and grant assistance for non-terrestrial links to cut scheduling delay in dual-connectivity operation.

A relay UE separates sidelink and uplink grant handling so remote UE packets meet packet delay budgets with lower signaling complexity.

Event-driven A1 notifications let a Near-RT RIC signal new and obsolete policy types so the Non-RT RIC stays synchronized without polling.

Preconfigured parent-node switching and lean recovery signaling cut IAB relay link interruption delay during failure or congestion.

Allocating only unassigned channel spectrum to NB-IoT and LTE-M requests improves spectral efficiency and limits interference during peak demand.

Automatic in-vehicle device selection uses RSSI, connection intent, and preferences to enable seamless pairing and fallback streaming.

Isolated test slices let DU, RU, and CU components be validated in a cloud-native cellular core without disrupting production traffic.

BTM requests steer non-AP MLDs to new WLAN links without purging context, improving load balancing while avoiding reassociation delays.

Cells are grouped by ranked radio and network conditions so QoS rules can meet QoE targets with lower computational load.

Aggregating buffer status across relay nodes cuts reporting overhead while improving resource allocation in multi-hop sidelink networks.

Estimates user throughput by combining PRB availability, CQI, and MIMO data across cell sectors and frequencies for better edge analysis.

Criteria-based RRC release after small data transmission improves radio resource use while avoiding extra latency from full reconnection.

MU association groups let mesh nodes coordinate OFDMA and MU-MIMO resources, improving channel use, QoS, and concurrent traffic capacity.

Intent-based steering lets a near-RT RIC configure RAN functions per device, speeding policy changes without waiting for vendor updates.

Dedicated SDP signaling exposes ANBR support so UEs can adapt codec modes across network changes without frequent renegotiation.

A split DCI format lets PDCCH adjust second-stage size to the number of co-scheduled cells, reducing 5G NR control resource waste.

Preconfigured inter-DU forwarding lets radio units migrate between distributed units while maintaining packet flow and balancing 6G network load.

Targeted configuration links terminal IDs, bearer IDs, and egress PC5 RLC channels to improve U2U relay communication efficiency.

Partial TID-to-link signaling lets a multi-link WLAN terminal preserve default or prior mappings, cutting overhead while maintaining QoS.

Buffer-aware SR signaling and XR-specific BSR tables cut 5G NR uplink scheduling delay while improving resource allocation accuracy.

Coordinated time-frequency resource set signaling helps terminals avoid interference and half-duplex conflicts while lowering energy use.

Selective PDU set handling within a delay budget preserves valid XR packets, adds end markers, and avoids discarding whole sets after loss.

Negotiated TSN and wireless scheduling adapts MCS and client priority to changing RF conditions, reducing data loss and wasted bandwidth.

Cryptographic MAC checks and a policy protection counter secure user equipment policy updates while limiting provisioning vulnerabilities.

Allocate sub-slices within one network slice to tailor QoS by user group while avoiding separate slice instantiation and resource overhead.