Network Traffic/Resource Management TRIZ Cases

A policy controller steers traffic using geolocation rules, reducing network congestion while maintaining data accessibility.

A terminal selects transmission resources from periodic reservations or sensing windows to optimize data packet delivery.

Prioritized resource lists enable sidelink UEs to select conflict-free transmission slots, resolving interference in 5G V2X positioning.

A relay node combines uplink packets from clustered wireless devices to reduce power consumption and control overhead.

A mobile station sends a handover announcement to the serving network before switching, allowing the current network to update operational parameters.

A user equipment discards uplink grants after transmitting a zero buffer status report.

Segmenting common MAC headers across A-MPDU subframes reduces protocol overhead while maintaining independent error detection for each unit.

Mobile station notifies managing base station of secondary cell activation status via uplink signals.

A terminal processes control signals to establish and reuse unicast links for direct communication.

A data scheduling method transmits determination rules to terminals for identifying target location information across multiple time domain units.

A slice controller abstracts and dynamically allocates radio resources across base stations to support isolated communication flows.

Hierarchical segmentation of quality metrics reduces network bandwidth consumption while maintaining comprehensive real-time monitoring accuracy.

A dynamic data-stream allocation method adjusts weights based on peak transmission rates across wireless network modules.

Network device sets same tunnel endpoint identifiers for master and secondary radio base stations, enabling dual connectivity without complicating the sequence.

A wireless mesh network encrypts data frames using a segmented initialization vector composed of super frame counters and sender identifiers.

A TCP congestion control method dynamically adjusts window size to maintain high transmission rates.

A wireless system uses channel variance values to determine reliably usable bandwidth and adjust data frame transmission rates.

A wireless device groups traffic identifiers into a single specification element using a bitmap to consolidate data transmission.

Nodes detect forwarded frames to confirm delivery, resolving wireless reliability issues in building automation.

A network device maps core network slices to quality of service identifiers to generate flow requests for radio access network slice selection.

Multiplexing a MAC random access response with service data units reduces look-before-talk procedures and lowers latency in unlicensed spectrum networks.

A communication apparatus determines optimal service levels for extended reality applications based on terminal capabilities and preferences.

Segmenting transmission into dedicated voice and shared data slots resolves the contradiction between high-speed transfer and reliable voice support.

Home core network control planes send local breakout policies to visited networks, reducing inter-network traffic consumption and service access delay.

Intermediate proxy nodes apply rules-based overload control to manage guaranteed processing bandwidth for critical messages.

A core network device determines target access nodes based on terminal device and service types to ensure proper capability matching.

A first terminal stores notification messages in a local buffer during Bluetooth disconnection periods to ensure timely delivery upon reconnection.

A wireless teleconferencing system tracks participant locations to transmit composite audio signals to headsets.

Momentum transfer encoding circuits reduce thermal footprint and power consumption while maintaining high data throughput in mobile devices.

A wireless intelligent decision-making communication system predicts application scenarios and activates multi-domain resources.

A probe request frame includes an important update request field to signal critical information needs.

Sampling controller generates identification signals to manage processor data flow, eliminating acknowledgement overhead.

A computerized system calculates frequency-dependent scores for shared antennas to enable targeted parameter adjustments.

A target gateway pre-subscribes to multicast video streams before mobile device handoffs complete.

Terminal device selects RLC entities for split transmission based on cell groups to resolve selection complexity when duplication is deactivated.

SMF dynamically adds or removes anchor UPFs based on UE location to reduce backhaul traffic overhead while maintaining session continuity.

Source nodes inform target NG-RAN nodes about ongoing remapping via SN Status Transfer messages to prevent data forwarding errors.

Time multiplexing secondary cells resolves inefficient channel selection by scheduling distinct transmission routines per user device feedback.

Group identification codes enable base station coordination to mitigate interference and ensure uninterrupted public safety communications.

Adapting quality of service flow identifier lengths resolves compatibility contradictions between source and target radio access networks.

Segmenting EPS bearers across cellular and Wi-Fi channels increases bandwidth while a reordering buffer maintains packet sequence integrity.

Access Identifier and Network Slice Access Management component updates user equipment access parameters dynamically.

Packet data network gateway uses deep packet inspection to identify flows for offloading to wireless local area networks.

Separating logical channels by duplication status enables accurate resource allocation and avoids insufficient uplink scheduling.

Dynamic allocation of contention-based resources minimizes latency and signaling overhead by enabling real-time updates based on traffic conditions.

A user equipment transmits a scheduling request after performing downlink measurements to signal availability for data transmission.

A delay adjustment system estimates outgoing rates to time data packet arrival at base stations.

An eNodeB dynamically assigns user equipment to nonstandalone or standalone nodes using historical data and signal quality metrics.

Switching from a data transmission frequency to a separate response frequency prevents signal interference in multi-hop mesh networks.

60 GHz radios deliver fiber-like latency and low jitter for mobile crane backhaul, replacing unreliable 5 GHz unlicensed links.