Connection Management TRIZ Cases

A mobile device provides real-time visual feedback during data transfer to let users modulate the volume of shared information.

Controller monitors unicast sessions and switches to multicast service when user counts exceed defined thresholds.

Network-configured transmission patterns enable sidelink UEs to balance load across mode 1 and mode 2, reducing radio link failure risks.

NWDAF analytics set dynamic inactivity timer values to reduce control signaling overhead and battery power consumption.

A dual-registered terminal device coordinates uplink transmission across multiple networks using dynamic time period configuration.

A GTP firewall manages signaling traffic between 3G GSM and 4G LTE networks by mapping protocol messages.

A terminal receives measurement configuration indicating the relationship between neighboring cell measurements and an s-measure threshold.

A U2N relay device manages communication handovers between user equipment and wireless networks.

Paging instructions embed user equipment radio capabilities to eliminate upstream queries and reduce session establishment delays.

A flow aggregation protocol negotiates communication standards between client devices and network engines to manage data packet routing.

Wireless beacons enable automatic order recall and contactless payment in drive-throughs, reducing interaction time while managing security risks.

Pre-allocated connection identifiers eliminate sequential delays during ranging procedures, reducing service interruption.

Segmenting VoIP calls allows audio and video streams to route independently across multiple connected devices.

A mobility management functional entity judges UE location to trigger session updates in the network.

Receiver validates communication blocks via seed alignment, deleting misaligned data to eliminate synchronization overhead and reduce processing complexity.

An application server assigns unique user identifications to fork session initiation requests toward active entities only.

User equipment records random access failure information and reports it to the network device for parameter optimization.

A base station selects subordinate cells using quality of service or terminal type parameters.

User terminals determine data and control radio resources from base station information to enable direct device-to-device communication.

Segmented TEID allocation by CU-CPs resolves conflicts when multiple control planes connect to user planes over the F1-U interface.

Distributed display agents synchronize interactive animations across multiple devices, resolving host processing bottlenecks and underutilized resources.

A mobile station forwards non-integrity-protected layer 3 messages to the mobility management layer when domain-specific security modes remain inactive.

Dynamic mapping of content flows to radio bearers resolves latency and resource utilization trade-offs by switching between unicast and multicast modes.

Processing circuitry monitors elevation angle trends to select optimal communication nodes for signal transmission.

Terminals monitor PCS and Uu link quality to switch paths, resolving static policy inefficiencies.

A policy control device manages network rules by identifying IoT devices through encrypted HTTP headers using a relay intermediary.

A SIP infinity registration method uses unique tokens to manage user agent sessions without periodic polling.

A server manages call routing independently of the network operator's home location register.

A base station generates a triggering message using an enhanced paging mechanism to recover user equipment from a light connection state.

OMA DM server sends override indicators to dual-priority UE, resolving network congestion from M2M traffic by enabling normal priority requests.

Private network segmentation isolates test emergency calls from operational traffic, preventing false routing interference with public safety services.

First device initiates device-to-device communication on unlicensed bands after verifying resource availability.

Dynamic code division multiplexing group hopping coordinates transmission points to assign unique reference signal groups.

Network node configures wireless links using device-reported performance requirements to optimize control signal communication.

A relay node forwards data between base stations and user equipment to create virtual multi-link communication paths.

Inductive coupling links portable devices to media systems, resolving measurement precision issues in user exposure tracking.

A multi-radio access technology receiver uses distinct local oscillator divider ratios to generate separate signals for concurrent downlink detection.

Master eNB triggers Local Gateway release of SIPTO connections during handovers between Secondary eNBs.

A transmission UE autonomously determines scheduling information to dynamically allocate resources for device-to-device communication.

Dynamic I/O multiplexing switches between polling and epoll methods based on connection state, reducing resource overhead from idle connections.

Master eNB sends SeNB release request with cause IE to secondary node, reducing signaling waste from failed RRC configuration.

Wireless terminals disable MPTCP connections to WLAN networks when mobility exceeds thresholds, reducing battery consumption and signaling load.

Segmenting resource allocation into base station controlled and autonomous modes resolves the trade-off between efficiency and infrastructure dependency.

An information processing apparatus determines wireless connectivity feasibility with an image forming device via a network router.

User equipment transmits radio resource control resume requests and assistance information during small data transmission procedures.

A QUIC-based signaling system enables secure peer-to-peer media transmission channels.

A logged MDT measurement report includes early measurement data and quality threshold indications for non-measured frequencies.

Wireless devices select relay nodes via sidelink connections using throughput and signal strength metrics.

Dividing attach context reduces network resource consumption while maintaining connection reliability for low-bandwidth devices.

Pre-allocating subchannels outside station operating width resolves bandwidth waste and reduces latency.