Connection Management TRIZ Cases

Measurement reports include service indicators to resolve the contradiction between signaling overhead and MBMS service continuity during wireless handover.

User equipment delays secondary cell group evaluation to resume dual connectivity after network switching.

A terminal evaluates Secondary Node configuration using local measurements to determine acceptance.

Radio access network configures radio resources for user equipment in inactive state to reduce state transition overhead.

A wireless device uses a secondary transceiver to exchange connection parameters before initiating primary network access.

Service-based architecture segments network resources via slicing to resolve versatility versus complexity trade-offs.

Segmenting authentication between mobility and session functions reduces process complexity while maintaining reliable network slice resource allocation.

A GGSN apparatus selects a default PDP context IP address for service contexts to simplify the assignment process.

Network differentiates public safety calls using indicators in setup complete messages, enabling appropriate access control.

A relay device manages connection requests between open and closed networks to enable secure data access.

FPGA hardware processes GTP-U packets via independent learning tables, resolving CPU dependency bottlenecks that limit productivity.

Coordinated MEID sharing between mobile switching centers and base stations prevents duplicate identifiers while reducing unnecessary signaling overhead.

An integrated access and backhaul node selects a new connection destination from candidate upper apparatuses before timer expiration.

Session management function updates user equipment DNS cache with local server addresses, enabling uplink classifier routing to MEC nodes.

Segmenting the transceiver allows independent receiver tuning to monitor alternate networks without shutting down the transmitter, preserving uplink throughput.

A cross-device transmission system uses fixed-length encrypted digest information to verify data validity between terminals.

A secondary node addition method for dual connectivity wireless systems uses measurement evaluation to initiate random access.

Base stations use a shared PDCP entity to dynamically switch between point-to-point and multipoint transmissions, resolving device complexity trade-offs.

A gNB central unit user plane receives a downlink data delivery status message to halt packet transmission during mobility events.

UE sends frequency-based MBS interest indication to maintain service continuity without signaling overhead.

A terminal device establishes multi-session connections with multiple server devices to maintain communication continuity.

Central control node determines wireless communication mode by comparing interference cost estimates across multiple cells.

Grouping M2M devices via multicast identifiers reduces network congestion and communication overhead while maintaining reliable device coverage.

A core network node receives association information linking service attributes to area identification data for terminal apparatuses.

Control device manages group address messages to establish exclusive communication channels for radio subscribers.

SIP REFER messages route private content to specific participants, resolving the conflict between group communication capability and message privacy.

A processor transmits touch link messages through capacitive electrodes to exchange essential connection information between devices.

User equipment provides EPS capability information in cleartext before the security mode procedure to enable network inclusion of NAS security algorithm data.

A terminal uses distinct access technologies to route non-access stratum messages and establish user plane sessions independently.

Low-power broadcast messages enable automatic device pairing within a defined zone without explicit user input.

An information processing apparatus adjusts wireless communication conditions based on real-time state and surroundings.

Semi-static time duration separation prevents interference from timing advance differences between LTE and NR signals.

A Successful Primary Secondary Cell Change Report configuration mechanism exchanges timer and measurement data between network nodes to streamline handover procedures.

A radio bearer establishment method exchanges logical channel occupancy information between user equipment to select idle identifiers.

Dynamic periodicity adjustment through RRC and DCI messages resolves URLLC latency bottlenecks while preventing HARQ collisions.

A path switch method manages dual connectivity by prioritizing default bearer admission control during network entity transitions.

Automated detection retrieves peripheral applications from a server, eliminating manual user intervention during device pairing.

Dynamic occasion selection reduces scheduling request frequency, lowering power consumption while maintaining communication reliability.

User equipment manages multiple USIMs through dynamic RRC state transitions between connected and idle modes.

Terminal selects onboarding network using AMF and SMF to automate subscription configuration in 5G non-public networks.

Transferring context information prevents service interruptions during radio link failures in heterogeneous networks.

User equipment exchanges DNS messages using Non-Access Stratum signaling to establish a secure channel for sensitive traffic.

A terminal controller determines packet switched signaling connection status to manage switching timing between radio access technologies.

A wearable device implements a Non-Access Stratum layer to authenticate with cellular networks via a smartphone intermediary.

A sidelink discontinuous reception mechanism segments monitoring periods to reduce power consumption in wireless devices.

An MTC accumulator establishes direct communication path tunnels with an eNodeB and application server to streamline data forwarding.

Segmented RRC messages prevent legacy eNB incompatibility, reducing radio link failures and battery drain.

Dual-channel data transmission routes packets via Wi-Fi and Bluetooth to a proxy server, reducing latency and packet loss in unstable networks.