Connection Management TRIZ Cases

A user equipment transmits a PDCP status report to the target access node during handover.

A wireless network preserves user equipment context records during maintenance shutdowns to minimize signaling overhead.

A central server manages communication sessions between field and remote devices by monitoring device states to establish reliable connections.

User equipment detects leaving an MBMS area and sends indication information to the network.

Intelligent circuit switched fallback management prioritizes voice calls over data sessions to minimize network interruptions during LTE to 3G transitions.

User equipment reports artificial intelligence capability data to a base station, enabling coordinated task distribution between terminal and cloud resources.

Signaling device type allows two-receiver XR devices to access 2.5-5 GHz bands, resolving RF compliance versus band access contradictions.

Transferring target serving node identity to the location server maintains continuous location services for user equipment during emergency call handovers.

Central unit establishes direct connection with distributed unit to bypass interface traversal and reduce total data transmission delays.

A wireless transmit receive unit receives pre-configured serving cell information to initiate a high speed downlink shared channel cell change.

Segmenting user equipments into groups based on identification values reduces schedule length for device-to-device channel measurements.

Candidate base stations modify conditional handover configurations using local congestion data, reducing radio link failures and improving network capacity.

Direct tunneling between RAN nodes removes centralized security gateways, reducing latency and conserving backhaul resources.

A terminal aligns its satellite antenna radiation direction using internal geomagnetic and attitude sensors to track a target geosynchronous satellite.

A control base station sends resource configuration indications to a data base station for allocating resources to data radio bearers.

A network node controller selects a scheduling policy to allocate communication resources for device-to-device links.

Synchronizing radio link control re-establishment with PDCP data recovery prevents packet loss during uplink or downlink outages.

A common E-RGCH channel broadcasts control commands to adjust user equipment serving grants for neighboring cell interference management.

A terminal controller generates parallel TCP connections across multiple network interfaces to distribute HTTPS data streams.

Configured paging area segmentation reduces network signaling load by enabling targeted RAN-initiated paging within specific cell subsets.

A media processing device establishes persistent WebSocket connections to a server for observational data collection and configuration updates.

A relay node configuration method establishes node disjoint paths using a mobile termination to enable efficient data transmission.

Merging separate selection procedures into one unified process reduces signaling overhead while maintaining registration reliability.

A mobile communication system manages D2D group security through Home Subscriber Server key distribution.

Dynamic session tying allows independent EVDO and PPP closure, reducing battery consumption and network resource waste.

A secondary cell-user equipment relays data via sidelink, bypassing base stations to reduce network latency for time-sensitive applications.

A wireless paging mechanism maintains a dedicated connection identifier to enable fast state transitions.

User equipment identifies serving beam failures and switches to a contingency bandwidth part for random access.

Finite State Markov Channel model updates link metrics using state transition probabilities for packet transmission.

Set-top boxes share unlicensed spectrum bandwidth via a mesh network to combine media streams, resolving rain fade and outage bottlenecks.

A portable terminal segments maintenance data by priority to optimize transmission scheduling across available communication lines.

Serving gateway detects co-located user equipment and triggers direct base station links, eliminating intermediate routing hops to reduce transmission delay.

A network node uses an uplink grant indicator to exclude or add resources, resolving collisions between PUSCH and reserved channels.

Dynamic state transitions reduce power consumption without impacting latency by adapting to jitter conditions.

A base station configures allowable modulation coding schemes for logical channels to align uplink grants with specific transmission requirements.

Downlink Control Information implicitly indicates Semi-Persistent Scheduling activation via radio network temporary identifiers and resource locations.

A user terminal control section manages beam failure recovery requests based on specific secondary cell configurations.

Non-uniform synchronization signal block periodicity before wake-up resolves the trade-off between power consumption and measurement precision.

A resource control module in user equipment detects core-network type differences before initiating a wireless connection resumption procedure.

A Foreign Agent assigns a unique session ID to each Mobile Node and embeds it in the registration request message.

User equipment triggers PDCP layer status reports during multicast broadcast service transmission scheme switching.

A time raster indicates eligible instants for handover messaging based on network traffic patterns.

Base stations establish direct packet data connections via a local IP network, bypassing the packet data serving node to reduce latency and jitter.

Unsupervised machine learning derives dynamic thresholds for enterprise network connection phases, resolving static configuration limits.

A VoLTE call setup mechanism triggers dedicated bearer establishment during Session Initiation Protocol signaling exchanges.

Intermediary message passing bypasses unreliable OS functions to terminate wireless links at intended timings, reducing connection maintenance delays.

Partitioning eNodeBs into non-overlapping PTW zones reduces mobile UE power consumption while controlling the tradeoff between paging load and latency.

Terminal device requests specific resources via message 1 to reduce overhead and delay while supporting larger data sizes in RRC inactive state.