Connection Management TRIZ Cases

A user equipment establishes a sidelink with a companion device to enable a second channel rank for wireless communications.

Segmenting identifiers into physical and MAC layers reduces overhead while enabling efficient signal detection for out-of-coverage devices.

A communication method automatically initiates a secondary data network while maintaining an active voice call.

User equipment sends auxiliary information to a network device to receive measurement gap configuration details.

Base station selectively deactivates secondary carriers upon uplink radio link failure to maintain connectivity through unaffected primary links.

Proactively transition relay wireless devices to new signaling controllers, preventing IP address loss during maintenance.

A terminal device requests network side release of the LTE connection to enter idle mode and display the 5G icon.

A terminal device derives repetitive transmission counts based on downlink reference signal received power measurements.

Throttling scheduling requests after long tune-aways prevents RRC mismatches and reduces power consumption by avoiding unnecessary transmissions.

A mobility management node processes service class indicators to prioritize paging requests in wireless networks.

A USIM manages multiple IMSIs to switch network identity while a timer remains active.

A segment routing gateway translates packets between GTP-U and SRv6 protocols, reducing path information setting complexity in IP networks.

Segmented failure reporting fields manage processing overhead while dynamic DRX configurations reduce power consumption.

A user equipment monitors retransmission data scheduling of a multicast broadcast service using a designated identifier configured by the base station.

Segmenting preamble pools eliminates contention between standalone and dual connectivity devices, improving access reliability.

An information processing device manages carrier network connections via an eUICC and logical tunnel for flexible communication.

A user equipment sends a first service request with an initial security parameter to establish a network connection.

Enterprise and carrier VCC anchoring points communicate to manage call handovers between wireless networks.

A virtual machine on an intermediary network device establishes a secure channel to receive session keys and instantiate decryption capabilities.

A terminal device reports cell identifiers to a network device, which reconfigures reference signal resource sets for link recovery.

Segmenting paging indications across PBCH and PDCCH reduces payload size per transmission, lowering beam scanning overheads in high-frequency 5G networks.

A cellular network node reassigns modulation scheme indices to support low complexity settings.

An AI routing system analyzes message content to identify user intent and match tickets to suitable endpoints.

Segmenting baseband functions into control and user planes reduces operational costs by deactivating idle resources while maintaining service coverage.

A User Equipment timer delays IMS de-registration after Voice over LTE calls, minimizing excessive network resource usage for infrequent IoT devices.

A communications module generates transmission sequence numbers to ensure reliable messaging across volatile networking conditions.

A network node verifies communication partners by comparing transmitter and receiver measured data images.

Segmenting resource pools by movement direction minimizes inter-carrier interference and improves channel estimation for high-speed V2X communication.

A voice recognition server processes audio input from authenticated mobile terminals to generate control commands for interactive electronic devices.

A terminal device processes beacon radio wave strength to determine user movement relative to target and non-target apparatuses.

Assigning stations to medium access groups reduces collisions and network congestion.

A terminal establishes direct peer-to-peer links using network-provided resource allocation information.

Wireless device sends radio link failure reports through a secondary node to trigger fast handovers and reduce service interruptions.

A User Equipment in RRC inactive state receives a network indicator to transition to idle mode.

A network method sets up multiple radio links by exchanging capability information between mobile stations and base stations.

A communication apparatus maintains continuous attachment to a circuit-switched radio access technology while utilizing packet-switched services.

A user terminal processor maps D2D data resources using a persistent table correlating scheduling assignment frequencies with resource locations.

Distributed packet processing engines route user traffic directly, reducing latency while maintaining lawful intercept capabilities.

Dynamic scheduling prioritizes one subscriber number to reassemble complete messages while sharing schedule data prevents collisions on the shared radio.

A base station suspends measurement object configurations when multi-dimensional failure thresholds are met.

Central programming devices establish security protocols via physical proximity to resolve the contradiction between high security levels and ease of operation.

Terminal detects playing device working states to group devices automatically, resolving manual grouping complexity.

An intermediary system provides connectivity information to user equipment, enabling dynamic control of cross-network device connections.

Embedding position data in advertising packets resolves radio field intensity limitations.

A user equipment monitors radio bearer status to manage NAS signaling connections during handover procedures.

An IP address and port-based identity service provides persistent user identification through centralized database queries.

A core network policy system determines optimal timing for mobile terminal state transitions to reduce signaling load on the core network.