Connection Management TRIZ Cases

A base station manages radio terminals in an RRC light connected state to suppress unnecessary signaling while maintaining S1 connections.

Bypassing the PDCP layer via a logical channel identifier removes five-byte overhead from control plane messages while maintaining NAS security.

A multi-PDN cellular gateway manages simultaneous IP traffic streams using multiple independent modems.

Partial sensing reduces latency and power consumption by performing contiguous sensing before the active time.

A digital meeting tool uses beacon signals to notify user devices of nearby recruiters.

Multi-user packet technology packs user data into sub-packets to share the forward channel, reducing system delay and bandwidth waste.

A 3GPP mechanism establishes redundant packet transmissions between user equipment and a user plane function using two separate protocol data unit sessions.

A network analysis system generates simulated environments with virtual base stations and user equipment on an Ethernet network.

Standardized MIB objects maintain accurate bridge managed objects, ensuring reliable communication despite volatile radio access network conditions.

Multi-SIM user equipment transmits request signals to manage connections, reducing disruptions from shared radio components.

A base station starts an RRC inactivity timer when a user equipment enters an idle state during proximity service communication.

Delaying authentication until after attachment to a new control component ensures uninterrupted communication sessions during radio link failures.

A user equipment assigns measurement resources based on simultaneous RX beams capability to complete L1 and L3 measurements faster.

Mobile station autonomously activates secondary cells to reduce master base station complexity while maintaining scheduling awareness.

A baseband processor triggers coordinated leaving to abort RRC reconfiguration on one SIM while handling high-priority tasks on another.

Preconfigures beam indication sets based on time and movement parameters, reducing latency and signaling overhead during user equipment mobility.

Segmenting monitoring into multiple threshold comparisons resolves QCL mismatch errors, improving detection accuracy without excessive complexity.

Segmenting the API isolates certified emergency functions from flexible updates, reducing recertification costs.

A terminal device determines a shared paging occasion using a service identity to receive group messages.

Dynamic E-RGCH reconfiguration during E-DCH operation eliminates resource waste from fixed configurations and improves allocation efficiency.

A multi-module wireless system maintains passenger communication links in elevator cars.

Cell identity data lookup maps user equipment positions to coverage sub-areas, resolving accuracy limitations in multi-cell environments.

EAP-TLS authentication enables secure session initiation for subscriber terminals lacking a UICC card.

A mobile terminal acquires system permission to establish a connection with a remote control device for executing recognized instructions.

Master device compares temporal selection data in advertising messages to automatically connect to the correct slave device.

Mobile device encapsulates cellular signaling in a packet wrapper for transmission to a virtual base station.

A computing system detects high RAB-modification request rates to discontinue switching between access nodes.

A telematics control unit transmits location data to emergency services using network-based positioning methods.

Using a compact Resume ID instead of full UE identity reduces signaling overhead and processing load for suspended IoT devices.

A base station calculates RA-RNTIs using coverage enhancement level identities to multiplex random access responses into single MAC protocol data units.

Target access point detects radio link failure during handover and reports the event to the serving node.

A NAN-Aware engine manages device discovery states using context information collected by an Information Handling System.

Virtualized nodes execute dynamic service function sequences based on packet identifiers to resolve static APN configuration bottlenecks.

Terminal detects listen-before-talk failures and reports them to the base station via RRC messages.

User equipment discards incomplete application layer measurement reports during secondary cell group release to maintain configuration integrity.

A wireless access point controller assigns unique tunnel identifiers to virtual local area networks for direct data packet forwarding.

A relay user equipment establishes separate second hop PC5 links to multiple target devices while maintaining a first hop link with a source device.

A terminal apparatus associates DRB identities with EPS bearer identities via RRC reconfiguration messages to streamline protocol handling.

User equipment reports downlink reference signal detection results to a base station for accurate radio link monitoring.

Allocating one IP address across multiple devices establishes parallel data paths, increasing throughput while containing signaling complexity.

Evaluating radio signal characteristics enables early connection setup between mobile edge systems, reducing user plane latency during base station handovers.

Single portable radio monitors multiple channels by suppressing audio based on proximity, resolving complexity of carrying separate devices.

A security mode command message consolidates configuration and capability requests into a single exchange between base station and user equipment.

A SIP control server detects dropped sessions via BYE messages and re-establishes connections using registration notifications.

Core network aggregates uplink traffic from multiple remote UEs into a single relay session.

A Narrowband Assisting Network and Positioning Assisting Network facilitate beam alignment for THz wireless communication.

An intermediary network device manages UPF session migration, eliminating complex backup relationships and reducing message processing overheads.

Terminal devices feed back device-to-device capability data to the base station, enabling accurate resource allocation and reducing unnecessary resource waste.