Network Traffic/Resource Management TRIZ Cases

A sidelink resource selection mechanism identifies interfering user equipment using beam and location data to exclude reserved resources from the selection window.

A control unit divides coverage areas into zones to determine access parameters based on usage data.

Local forwarding bypasses the access service network to transmit data directly between terminals.

A link switching method establishes a second communication link to perform service transmission when the first link fails.

Infrastructure equipment transmits control signals indicating scheduling gaps between transport blocks to enable dynamic resource adaptation.

Stations manage latency-sensitive traffic by terminating unused flows, reducing interference from unregulated data.

A frequency band decision unit selects wireless communication bands based on moving body information and manufacturing status.

A distributed radio base station adjusts sampling rates based on allocated bandwidth to reduce transmission requirements.

Base stations exchange conditional handover identifiers and cell information to manage wireless resources.

Dynamic handover threshold adjustment suppresses unnecessary measurement reports, reducing base station processing load while maintaining reliable connectivity.

Access Point transmits reservation scheduling frames to claim channel access and define time windows for target stations.

Waveform shaping filters reduce intercarrier interference, lowering protocol overhead and latency in asynchronous wireless networks.

User equipment establishes multiple PDN connections to route application data through distinct remote IP networks.

A dormant mode suspends secondary cell groups to reduce battery consumption while maintaining configuration data for rapid activation.

Cross-reporting binary buffer status between cell groups coordinates dual connectivity scheduling, preventing UE power overtaxing.

Segmented message exchange resolves incomplete SMF-PCF interaction procedures by mapping QoS rules to PCC operations.

A mobile phone front-end reuses dual transmit paths to synchronously generate 2G signals via constructive interference.

A SEAL Group Manager server matches UAVs with controllers to provision network quality of service through group identifiers.

A communication apparatus stores control parameters to manage packet quality independently of standard identifiers.

Path identifiers resolve duplicate address conflicts across multiple IAB networks, reducing processing complexity at boundary nodes.

Dynamic prioritization of packet data control channels eliminates resource waste from fixed time intervals.

Detection unit identifies excess transmitting devices and suspends annunciation signals to reduce network interference while maintaining connectivity.

Segmenting resource blocks separates public safety and non-public safety discovery traffic to improve transmission efficiency.

A QoS signaling framework secures mobile IP handoffs using session IDs and node cookies.

An interworking unit converts protocols between UMTS and WLAN networks to enable seamless roaming.

Coordinated access point scheduling allocates distinct time slots to minimize packet collisions in dense wireless networks.

Protocol data unit sets map to communication channels based on importance metrics, reducing data discard rates in extended reality systems.

A sidelink user equipment reports retransmission resource usage to a base station for dynamic allocation.

A wireless device exchanges user data packets over a Non Access Stratum signalling connection to confirm delivery via verifiable acknowledgements.

A performance monitoring network device collects link metrics and inserts them into packets for socket applications.

Configuring demodulation reference signal density and location balances measurement precision against radio resource consumption.

Receiving end arranges RLC segments and delivers complete packets to the PDCP layer, resolving transmission performance complexity trade-offs.

User equipment selects D2D transmission modes based on radio conditions to optimize resource allocation.

Base station coordinates time-frequency resources for groupcast sidelink communications between multiple user equipment.

Real-time packet fragmentation and aggregation align variable data with fixed TDMA slots, resolving channel underutilization in industrial networks.

A logical channel prioritization mechanism uses a QoS resistance parameter to allocate uplink resources for multi-hop data forwarding.

Segmenting traffic into low-cost service and high-quality auxiliary paths resolves the contradiction between transmission cost and packet loss reliability.

A network manager system allocates radio access resources based on receiving device data to enable efficient broadcast offloading.

User equipment detects invalid EPS bearer context, locally deletes associated QoS flow descriptions, and signals a 5GSM cause to the network.

Segmented buffer status reporting reduces scheduling complexity and latency across multiple independent schedulers with non-ideal backhaul links.

A wireless communication apparatus numbers data and transmits it without renumbering after discarding specific pieces.

Segmenting export windows into smaller tracking periods captures granular metrics without overwhelming collector processing capacity.

A terminal detects a WLAN hotspot network type to adjust its data strategy for flexible transmission.

A communication device exchanges control information via a separate transmission channel to enable flexible coordinated data transmission.

Terminal device allocates radio resources per service data flow to resolve QoS flow level precision bottlenecks.

A multi-radio access point uses a common MAC scheduler to route packets across 60 GHz, 5 GHz, and CBRS bands for seamless connectivity.

A three-level network system routes video data through nearest available peer-to-peer stations to connect mobile platforms directly.

Physical layer feedback drives segmentation and multicast mapping to resolve system capacity reductions from inadequate resource management.

A channel reservation mechanism allocates exclusive medium access to wireless devices using prioritized contention and time slot subdivision.

A base station redirects user equipment to its home operator using temporary identifiers and available indications.