Network Traffic/Resource Management TRIZ Cases

Index-based priority rules resolve uplink feedback conflicts by selecting carriers with smallest indices, reducing signaling overhead.

Infrastructure equipment maintains packet bearer mappings during handover preparation, enabling seamless transitions between 5G and EPC architectures.

A mobile terminal obtains target resources using both new radio and long term evolution frequency points for uplink communication.

AMF generates relay authorization data to resolve Layer-2 and Layer-3 coexistence conflicts.

Advanced narrow band traffic controller units structure data flow using enhanced compression methods to reduce latency and packet loss in off-grid environments.

A bandwidth part switching method uses timing indication information to coordinate user equipment transitions between active and idle states.

Access node dynamically controls split-uplink mode activation based on connected user equipment counts.

A service-based radio access network reliability model configures initial contexts using specific reliability targets for differentiated network behavior.

Communication device selects partial channel bandwidth based on detected interference to reduce packet loss and ensure incumbent protection.

A radio resource management system allocates available resources using MAC layer data to optimize base station performance.

Virtual circuit routing technology assigns IP addresses and reserves time slots to bond heterogeneous network bandwidth.

A smart high availability system classifies user equipment into critical and non-critical pod classes to optimize resource allocation.

Terminal device segments overlapping channel state information across multiple physical uplink control channel resources to resolve time domain collisions.

Segmented downlink control information enables wireless devices to switch bandwidth parts using pre-configured identifiers.

Sending devices query network capacity to distribute data across under-loaded nodes, resolving uneven resource distribution and preventing device overload.

A wireless network apparatus detects excess capacity and increases aggregated bit rates using secondary AMBR activation.

Transmitting devices process MAC service data units without waiting for control element construction to accelerate protocol data unit generation.

Mobile devices transmit encoded SSID signals to exchange location data, resolving network congestion at crowded events.

Wireless devices compare path delays to activate packet duplication only when necessary, reducing radio resource consumption while maintaining reliability.

Wireless link adaptation extracts channel quality indicators to minimize uplink bandwidth consumption for feedback signaling.

A dynamic spectrum arbitrage system reallocates RF resources across networks by monitoring eNodeB congestion states.

Communication management resource evaluates service class and network load before device authentication to direct traffic efficiently.

An adaptive constant bit rate system allocates guaranteed minimum bandwidth for VoWiFi packet traffic over satellite links.

A home base station enters a low duty mode upon receiving an interference request from a mobile station.

Embedding buffer status indicators into payload data blocks reduces radio resource wastage by transmitting control information alongside actual data.

Analyzes call data records against device location data to detect timing and positioning errors in network planning repositories.

Cloud service generates device-type policies from aggregated operational data to control wireless client connectivity.

Segmented radio frames with dynamic slot configuration reduce user plane delay while maintaining service flexibility in TD-LTE networks.

Network devices use embedded prediction models to make autonomous routing decisions based on global intents and SLA requirements.

Dynamic weighting of wireless base stations by the CMTS resolves backhaul congestion and latency while maintaining network coverage.

A communication terminal compares primary carrier reception quality to a threshold value to determine cell search timing.

Segmenting the buffer status report by data type enables evolved NodeB scheduling precision, resolving inefficient air interface resource utilization.

Dynamic backhaul bandwidth management allocates available network resources based on actual subscriber loads, resolving static provisioning inefficiencies.

A WLAN frame transmission method uses cyclic prefixes and suffixes to identify different wireless standards.

Decoupling virtualized radio access network anomaly detection separates infrastructure monitoring from virtual network function analysis to reduce overhead.

A master User Plane Function reduces signaling delays by distributing session control information to slave nodes through data packets.

A modular base unit connects to cellular networks via interchangeable connection modules that relay signals between terminal devices and the network.

Originating repeaters transmit source overhead while terminating repeaters broadcast modified overhead to redirect user equipment across frequency bands.

Mobile Management Control Entity directs access nodes to reject traffic from faulty devices, preventing network resource wastage during connection setup.

Network slicing partitions radio access infrastructure into logical segments to enable flexible resource allocation across diverse wireless services.

Feature quantity calculating units extract packet size and interval data from communication traffic to estimate control attribute values.

A PHY device controls a second service interface to restart auto-negotiation and synchronize port status with a connected MAC device.

Merging separate wireless and wireline cores into a unified architecture reduces system complexity and operational costs.

A dynamic registration system matches co-located users through autonomous parameter selection.

An SDN controller selects user equipment in overlapping coverage areas to relay data between radio base stations.

A data transmission method transmits channel request frames across multiple sub-channels to identify idle frequencies for subsequent data transfer.

Wireless devices dynamically select sidelink communication modes based on configured quality of service and signal strength parameters.

Terminal transmits buffer status reports with separate data sizes for split bearers, enabling base stations to allocate resources accurately.