Network Traffic/Resource Management TRIZ Cases

A centralized baseband unit pool migrates processing loads between units to optimize capacity.

A cascaded hierarchical machine learning technique detects physical layer parameters in collaborative radio networks.

A terminal processing circuit configures uplink resources in unlicensed bands via radio resource control signaling.

Accumulating blocked access point identifiers in a database prevents unnecessary file transfer delays by avoiding relay nodes that cause bottlenecks.

Segmented scheduling parameters enforce aggregate maximum bit rate limits across radio bearers, resolving unfair resource allocation during network congestion.

An information processing apparatus manages communication lines and terminal device groups to allocate bandwidth resources.

A base station merges UE context retrieval into the RRC re-establishment signaling flow to reduce procedural steps.

A unified mobile resource contextualization engine stores context information and manages electronic forms across multiple software providers.

A personal quality profile system tailors media content delivery to individual viewer preferences.

Monitoring backup reference signals when primary quality drops reduces false radio link failures in unlicensed spectrum.

System manager controls batch service software upgrades in Evolved Packet Core networks using traffic deciders to route data flows between server groups.

Autonomous cell selection distributes network loading evenly by randomly allocating mobile stations among available cells with suitable signal characteristics.

User equipment selects between two-step and four-step random access procedures based on available uplink resources.

A radio communication apparatus controller specifies restricted time periods to manage network traffic volume.

A wireless terminal establishes and evaluates multiple base station connections to select a preferred downlink path.

Portable terminals exchange fingerprint sets to identify redundant data chunks, reducing network traffic while maintaining transmission reliability.

Dynamic ciphering configuration management for LTE WLAN aggregation systems.

A Policy and Charging Rules Node generates control rules immediately upon service request.

Hierarchical forwarding groups resolve coarse classification scalability issues by segmenting policies across levels for finer control.

Distributed probabilistic contention resolves intra-BSS and inter-BSS collisions during multicast transmissions without requiring synchronization.

A communication system selects downlink paths using service and backhaul characteristics.

A user equipment obtains state information and receives messages to determine transmission decisions based on geographic area data.

A communication network architecture enables cooperative access using mobile and static nodes to manage connectivity.

A hierarchical Smart-vLB system distributes network packets across probes using stateful and non-stateful virtual load balancers.

Clustering spatial position observations identifies moved or moving beacons to calculate accurate location data.

Assigns numerical values to quality of service attributes and processes them with weights to generate a single priority rating for radio bearer channels.

Terminal sends buffer status reports to allocate uplink resources across LTE and WLAN links, reducing cellular network pressure.

Deactivating a duplication bearer schedules data on the default link, resolving reliability and resource efficiency trade-offs.

Dynamic spectrum management through software-defined radio reduces deployment complexity while maintaining network reliability.

Terminal divides data into groups and transmits them across multiple wireless networks to prevent congestion and improve resource utilization efficiency.

Direct multi-user transmission eliminates access point intermediation, reducing latency and resource utilization for high-throughput applications.

Base station generates quasi co-location indication information using reference signal configuration data to support terminal operations.

A UE acquires congestion control information from a base station to determine PC5 radio resource parameters for V2X service data transmission.

Segmenting buffer information into MPDU count and total size fields improves uplink multi-user transmission accuracy while managing message complexity.

A wireless access node switches between data transmission modes based on real-time resource availability to maintain voice service continuity.

A wireless network system dynamically allocates carrier components to optimize data exchange performance.

Core network element updates QoS profiles for multi-access PDU sessions, resolving dynamic resource allocation bottlenecks.

Packet maps resolve UDP measurement gaps by inferring latency and loss through multi-dimensional histogram analysis.

Optimized cellular connection parameters enable high-priority data rates for link budget limited devices without increasing battery consumption.

Area entities exchange resource occupancy requests to resolve congestion and prevent interference between coexisting operation schemes.

Intelligent MEC resource scheduling service monitors cluster usage to redirect workloads across geographic regions.

A bandwidth management method pools data access channels of multiple wireless devices via an ad-hoc network to aggregate available resources.

A wireless relay node monitors traffic load and offloads cell edge devices to neighboring access nodes.

An access point monitors network resources and moves traffic flows to a cellular network when capacity is exceeded.

A base station schedules uplink wireless resources and adjusts application data rates based on real-time monitoring of quality of service policies.

A base station configures separate quality of service parameters for uplink and downlink directions within a single unified flow structure.

Base station provides bitrate recommendations for VoLTE calls based on user equipment queries to resolve network capacity trade-offs.

Dynamic topology reconfiguration reduces dissemination latency by deleting core network hops and adding direct peer-to-peer links between roadside units.

ACK filtering reduces latency and improves radio resource utilization by discarding excess acknowledgments during uplink congestion.