Network Traffic/Resource Management TRIZ Cases

A resource management system monitors CPU and memory usage to control data transmission rates on wireless devices.

Access stratum layer overrides conflicting release 14 and release 15 transmission modes to prevent packet loss during vehicle-to-everything communication.

A terminal tunnel protocol entity processes data over a WLAN carrier to offload user plane traffic from an E-UTRAN network.

A dynamic traffic steering system selects optimal radio access technologies based on real-time network conditions.

Segmenting HARQ process identifiers prevents collisions between dynamic and autonomous uplink transmissions in unlicensed bands.

Mapping Machine Type Communication event states to Virtual Network Function lifecycle states reduces activation delay and optimizes storage in VNF catalogues.

IAB nodes use conditional grants to dynamically adjust MIMO layers and transmission configurations based on real-time communication status.

Segmenting scheduling request handling into distinct phases manages network reliability and capacity while reducing device complexity in new radio systems.

A radio access network node signals a wireless device to stop Quality of Experience measurement reporting.

Local content caching at radio access nodes reduces backhaul traffic volume, lowering operational costs while maintaining core network services.

A network management server groups communication nodes into regions to control abnormal data flows across mobile units.

A Neighbor Awareness Networking protocol negotiates data exchange timeblocks between devices.

Shared trunk group traffic channels eliminate dedicated bearer waste while maintaining reliable half-duplex voice links across multiple LTE users.

A monitoring node load balancer decrypts encrypted S1-MME traffic using extracted S6a information to distribute tapped network traffic across multiple nodes.

A wireless network interface controller merges per-core transmission queues to enable parallel packet processing across multiple processor cores.

A distributing device adjusts simultaneous coupling limits based on recorded request and response times.

Serving radio network controller establishes direct flows to drift network entities for user equipment data transmission.

A grouping descriptor identifies protocol data unit clusters within a transport block to enable batch processing at the receiver.

A server generates overlap information associating 3GPP cells with Wi-Fi access points to manage user terminal attachment schedules.

Terminals transmit sidelink QoS parameters to the base station, enabling precise schedule request configuration and resolving accuracy complexity trade-offs.

A partial association identifier mechanism calculates device group values from specific bit positions to optimize channel access efficiency in wireless networks.

Segmenting large model updates into transport blocks resolves network reliability issues caused by oversized data packets in federated learning.

User equipment receives filtering conditions from a cellular access node to route traffic flows over WLAN.

A time-sharing visible light communication system dynamically allocates time slots to grouped light sources.

Grouping bandwidth parts with distinct intra-group and inter-group switching delays to accelerate user equipment transitions.

Phase rotation on OFDM subcarriers reduces Peak-to-Average Power Ratio while maintaining throughput and backward compatibility.

Proactive user handovers prevent service disruptions during backhaul link retraining or rate adaptation procedures in heterogeneous wireless networks.

A gateway server monitors management server load and throttles mobile device requests to prevent signaling storms in LTE networks.

A wireless access point obtains radio white space authorization for client devices lacking location capabilities.

Centralized storage reduces space requirements while CPU core fencing ensures deterministic performance for low-latency edge workloads.

Terminals share cell anomaly data to proactively adjust camping policies, avoiding lag in service quality.

A core network element sends quality of service rules to a terminal upon request.

Adjustable TTI durations balance rapid throughput ramp-up against network overhead by switching from short to long intervals after an initial period.

Terminal devices indicate mobility information to access grant-free resources, eliminating signaling overhead and energy consumption in 5G mMTC networks.

A communication device selects a control field format with or without scaling factor subfields to indicate queued data amounts.

A wireless device selects a physical uplink control channel resource from multiple candidates using specific control parameters.

A multi-mode radio circuit dynamically switches between Bluetooth Classic and Low Energy protocols using a mode switch controller.

A network node assigns reserved logical channel identifiers to compatible wireless devices for extended signaling.

A sidelink packet duplication management apparatus dynamically enables or disables duplication based on QoS parameters.

Predicting access point load using RSSI and traffic data allocates bandwidth based on usage, reducing actual network interference.

A spectrum relay apparatus allocates frequency bandwidths using local resource managers and priority-based negotiation.

Terminal device selects target uplink carrier using network broadcast values to balance traffic between primary and secondary carriers.

A 5G session management mechanism associates back-off timers with mapped home network slice identifiers to prevent redundant request transmissions.

Modifying PTID and ACI subfields distinguishes QMFs from non-QMFs to resolve sequence number ambiguity and encryption errors in IEEE 802.11ah networks.

Network nodes transmit reservation signals to announce resource usage, reducing interference and signaling overhead in dynamic TDD systems.

Macro base station coordinates protected subframe patterns to resolve synchronization issues and reduce signaling latency across heterogeneous network nodes.

Cross-carrier repetition schedules retransmissions across multiple carriers, resolving spectral efficiency limits in 5G networks.

An expandable RF signal matrix uses tiered switching units to route signals with minimal insertion loss across flexible input configurations.

Dynamic access point grouping merges multiple physical nodes into a single logical cell, reducing core network signaling load by eliminating frequent handovers.

A user equipment merges overlapping uplink transmissions into a single payload for transmission on one channel.