Network Traffic/Resource Management TRIZ Cases

A networking device classifies packets by service class and selects a network transport based on expected latency.

A multi-link device uses a common queue to buffer packets and allocates them across links based on sequence numbers.

An optimized MAC frame header reserves only necessary information to reduce transmission overhead in wireless networks.

An application programming interface exposes 5G wireless communication services to user devices.

Bursty transmission patterns reduce network congestion and lower client device power consumption by enabling low-power states between data intervals.

Segmented RAN, core, and transport SONs adjust parameters to satisfy traffic characteristics while conserving resources.

User equipment communicates required quality of service values to an LTE core network using an application programming interface.

A relay control system signals inter-cell interference coordination to a donor base station, enabling dynamic communication throughput adjustment.

A terminal manages data radio bearers by switching between first and second connections to maintain transmission paths.

Machine learning models predict traffic loads to generate new network components before exceeding dynamic thresholds, preventing performance failures.

Octet presence indicators in buffer size reports reduce latency by transmitting only active logical channel groups.

Segmented resource block numbering allows LTE-A terminals to parse extended carrier resources without increasing system complexity for legacy devices.

An intermediary service filters redundant commands and maintains open sessions to reduce reconnection time and computational load.

A relay user equipment monitors and determines data traffic volume sizes for itself and connected remote devices.

A UE MAC entity cancels pending scheduling requests to enable contention-based uplink data transmission without pre-scheduling.

A duplication transmission configuration method determines radio bearer settings to enable flexible activation and deactivation via MAC layer signaling.

System compares insertion loss metrics to establish optimal data flow distribution, improving uplink reliability while managing device complexity.

Dynamic chip rate adjustment enables flexible bandwidth waveforms to fit unused spectrum portions.

A user device automatically connects to a priority multicast channel using segmented service announcement files for faster discovery.

Dynamic resource block sizing reduces signaling overhead while maintaining throughput by adjusting allocation granularity based on channel quality.

Network device validates Stream Classification Service requests using cached application profiles, avoiding deep packet analysis for known traffic types.

Terminals report frequency-specific bandwidth capability information to radio access network nodes for dynamic resource allocation.

Network deployment information directs initial access requests to appropriate Access and Mobility Management Functions in 5G systems.

A network node dynamically configures measurement gaps based on user equipment capabilities to support flexible 5G New Radio requirements.

Segmented mobility agents bypass core anchors to reduce transmission delays and improve network scalability in mobile systems.

Analyze Fourier transform samples via slope values and adjacent channel patterns to differentiate Wi-Fi signals from non-Wi-Fi interference.

A control apparatus calculates predicted end-to-end throughput to adjust bandwidth distribution across multiple traffic pieces.

Evaluation unit filters message segments using priority values and instantaneous network capacity utilization.

Dynamic probe message adjustment reduces power consumption and network resource usage while maintaining required connectivity reliability.

Determining frequency domain density K for PTRS mapping across quasi-co-location assumptions to support multipoint coordination transmission.

Dynamic bandwidth part switching allows low capability terminals to utilize wider frequency resources, improving data transmission efficiency in NR systems.

A wireless communication system manages band reservations using priority levels and rock-paper-scissors values to determine which station adjusts its frequency area.

Master node evaluates candidate secondary node buffer occupancy before setup, reducing scheduling delays caused by resource-constrained nodes.

A first user equipment provides physical layer indications of sidelink resources aligned with a second UE's active discontinuous reception cycle.

A wireless device indicates preferred bandwidth parts and duty cycles to a cellular base station for optimized resource allocation.

An intermediate session management function selects a second computing device to create a context for wireless communication data offloading.

A Radio Access Network node exchanges service delivery information directly with a mobile device to optimize bit rate and buffer status.

Segmenting the policy function into an external enforcement device prevents malicious interference while maintaining network stability.

Jointly encoding default DL numerology and PRB grid offset fields adjusts PBCH payload size, resolving mismatch issues between sub-6 and above-6 GHz ranges.

This architecture reduces signaling impact on the core network during frequent cell switching by isolating control plane processing from user plane data traffic.

A Delay Status Report mechanism prioritizes delay-critical data in wireless networks.

A first device determines radio resources and transmission direction from a third device to select a resource set for communication with a second device.

A signaling mechanism dynamically selects multicarrier transmission modes in HSPA systems to optimize data rates and power consumption.

User equipment filters initial Non-Access Stratum messages before transmission to manage connection state transitions efficiently.

A base station processes UE context release indications to initiate connection reconfiguration procedures that maintain the user equipment in a connected state.

Dynamic resource allocation resolves the trade-off between network versatility and utilization efficiency.

A compression engine transmits packet headers using an adaptive refresh rate calculated from decompression feedback signals.

Configuration module selects data radio bearers per quality of service flow to establish local end-to-end paths.