Network Traffic/Resource Management TRIZ Cases

An intelligent channel selection apparatus measures received signal power and frequency offsets to generate prioritized channel data.

An automated system selects optimal communication equipment configurations based on static and dynamic criteria to rapidly activate services.

Terminals perform sensing within specific time windows to exclude conflicting resources, reducing allocation reliability issues caused by close proximity.

A temporary network enables secure key exchange between a coordinating entity and a new terminal device before operational association.

A communication apparatus selects target transmit-receive pairs using iterative precoding and decoding matrices to enhance data rates.

Virtual pheromone trails guide ant colony optimization to resolve self-interference and boost spectrum efficiency.

First user equipment reserves sidelink resources and signals the reservation, allowing urgent data transmission when congestion occurs.

Separating tournament and busy signal channels reduces collision rates while improving bandwidth utilization in wireless networks.

A system adjusts alert message sending rates based on real-time network capacity and delivery status to optimize mobile network traffic.

A method dynamically adjusts air interface capacity density within logical cells by redistributing pico radio remote units.

A radio link transmission method allocates channel capacity for identical and unique data across multiple frequencies.

A master base station maps packet flows to radio bearers using service quality policies from the core network.

A base station transmits a UE-context release request upon detecting physical layer failure.

A vehicle control apparatus allocates partial data traffic capacities using route and network signals to optimize resource distribution.

A system manages incoming calls by detecting a third device to transfer an actionable notification and initiating a second call.

A policy enhancement module modifies user device attributes based on geographic location to optimize network resource allocation.

An access point device reconstructs data packets for wireless terminals across different frequency bands to enable seamless communication.

User equipment selects optimal radio access technologies and bandwidth parts to resolve the trade-off between communication efficiency and device complexity.

A wireless hotspot system dynamically adjusts communication protocols to optimize bandwidth usage across connected devices.

Segmenting frames by receiver address before aggregation increases throughput and reduces interruptions.

A coordination server assigns caching roles to mesh nodes based on throughput and latency metrics.

Master node transmits air beam preparation requests to candidate secondary nodes using UAV location data, meeting high QoS requirements.

A second communication terminal instructs a first terminal on connection settings by determining its capability to acquire parameters.

A traffic management system correlates radio network attributes with wireless device capabilities to optimize spectrum utilization.

A wireless device deactivates uplink carriers using downlink carrier linking relationships to conserve energy.

A cross-node buffer status reporting mechanism coordinates user equipment transmissions across multiple network nodes.

Session Management Function applies alternate 5QI values to conserve resources and reduce control plane latency.

Nodes detect electromagnetic jamming, scan for unused frequencies, and transmit selection data to other nodes to avoid interference.

A mobility management node caches MTC-IWF address information to establish direct T5 interface communications.

Distributed scheduling decouples PCELL and SCELL decisions to tolerate inter-node delays while maintaining quality of service.

A wireless terminal generates unique network identifiers to establish stable ad hoc connections without manual configuration.

EN-DC UE manages PDCP entities during LTE to NR transitions, resolving state variable complexity.

User Equipment validates sample counts against configured thresholds to ensure uplink packet delay measurement reliability and prevent unreliable reporting.

A terminal determines listen-before-talk priority classes using logical channel mapping information to perform channel access procedures.

User equipment discards protocol data units based on a buffer size threshold, avoiding latency from complex bandwidth calculations.

A network entity obtains slice SLA indications to provide local information.

Grouping mobile terminals reduces transmitted data volume during MME load redistribution, lowering infrastructure costs and preventing call losses.

A data analytics network element coordinates background traffic transfer policies across terminal devices to prevent transmission failures.

A network device dynamically allocates frequency bands to user applications based on real-time traffic conditions.

Terminal reuses primary cell random access parameters for secondary cell transmission.

Centralized TDMA networks allocate specific time slots to distributed protocols, preventing collisions and ensuring reliable coexistence.

Second base stations send discard indications to first base stations, resolving Dual Connectivity data management complexity and preventing internal errors.

A secondary handoff engine monitors primary state data to transfer active TCP connections without interruption.

A wireless traffic control apparatus adjusts scheduling parameters to manage data flow in cellular networks.

A connected vehicle adjusts network parameters using a virtual geographic information system overlay to optimize communication performance.

Extended header structure logically concatenates legacy indicator fields with additional bits to expand capacity.

Centralized configuration enables IAB nodes to handle data duplication and de-duplication, resolving backhaul link resilience challenges in 5G networks.

A method determines priority levels for channel state information reports to manage multiplexing and dropping of overlapping transmissions.

Dividing messages into partial segments and allocating resources from unified pools reduces overhead and delay in D2D communication.

A transmitting-side relay apparatus calculates encoding loss and packet loss rates to determine optimal transmission parameters.