Network Traffic/Resource Management TRIZ Cases

Segmenting broker functions across mobile nodes reduces individual load and enhances fault tolerance in infrastructure-less ad hoc networks.

An application-aware scheduling system coordinates user equipment and base stations to dynamically allocate communication resources based on specific service requirements.

A sidelink communication method segments encoded code block bits into distinct groups and maps them to specific resource elements.

An edge network exposure function service orchestrates interfaces between radio access networks and mobile edge computing platforms.

Transferring gateway addressing information enables seamless bearer offload between eNB nodes, maintaining user plane connectivity without service interruption.

A cellular network node switches User Equipment deployment modes between 4G and 5G base stations to optimize resource utilization.

A pilot radio device broadcasts spectrum map messages to non-cognitive devices lacking computational capability for local spectrum analysis.

Intercepting create session requests extracts lookup keys to steer traffic through virtual APNs, reducing provisioning time and latency.

Autonomous agents exchange encoded terminal data to classify overlaps, enabling rapid network reconfiguration without centralized control.

A fronthaul transmitter reduces bit rate requirements by estimating channel information to compress frequency-domain resource elements.

Terminals detect interference signals during frame intervals to stop reception, preventing channel conflicts and ensuring data integrity.

A mobile terminal transmits path information to identify a crossover node before handover.

Base station shares QoS details with relay stations to enable independent bandwidth scheduling.

A playback buffer management system adjusts storage levels during network transitions to maintain media continuity.

A traffic path control apparatus manages simultaneous 4G and 5G network registrations to enable dynamic data transmission.

A terminal control section determines transmission configuration indications based on downlink control information from multiple transmission points.

An SDAP entity detects end data packets on a first Data Radio Bearer before remapping a QoS flow to a second bearer.

A policy enforcement point applies default usage restrictions when a policy decision point fails to respond.

Aligning downlink control information sizes enables reliable sidelink communication in new radio vehicle-to-everything networks.

A WLAN controller retrieves quality of service policies from a PCRF to manage network resources.

Random sequence waveforms with phase tracking mitigate phase noise to ensure accurate ranging at higher frequency bands.

Centralized base station scheduling minimizes multi-hop interference to guarantee Quality of Service for high-priority data delivery.

A distributed control means allocates network resources across access nodes to optimize data flow and reduce core network burden.

A wireless uplink grant mechanism uses specific modulation and coding scheme values to signal channel quality information transmission requests.

A method adapts network readiness by measuring download quality and adjusting video bitrate to meet defined thresholds.

Linking Packet Detection Rules between co-located Serving Gateway and Packet Gateway nodes to optimize data-path processing.

A network device allocates resources based on terminal service prediction information, eliminating connection establishment delays and improving response speed.

A communication device manages packet priorities to establish reliable connections with external apparatuses.

Intermediate routers generate flow-specific congestion notifications to bypass end-to-end feedback delays and reduce buffer overflow risks.

A core network pool adjusts relative weighting values to balance traffic load across elements.

Dynamic component carrier activation reduces power consumption while maintaining high data transmission rates in wideband wireless systems.

A radio link control entity encapsulates final data segments from distinct packet flows within a single transmission block.

Master RLC pre-assigns sequence numbers to eliminate status PDU loss and reduce retransmission latency in non-ideal backhaul networks.

Dynamic reallocation of unused control resources carries user data, reducing resource underutilization in 5G networks.

User equipment modifies synchronization acknowledgment messages to adjust receiver window sizes for tethered devices.

Uplink Priority List resolves channel efficiency degradation in overloaded WLANs by granting scheduled transmission slots.

Segmenting wireless devices into direct and peer-to-peer groups reduces power consumption while maintaining reliable non-terrestrial network coverage.

An associating unit segments application bearers into distinct priority levels based on user preferences and real-time network conditions.

A customized PLMN selector file associates specific radio access technologies with mobile network codes to streamline user equipment search procedures.

User equipment skips unused uplink grants to conserve battery power and reduce latency by transmitting only when actual data buffers contain information.

Segmenting resource block groups reduces control signal overhead and eliminates dummy data waste in LTE uplink scheduling grants.

A dynamic spectrum arbitrage system allocates unused radio frequency resources to secondary users.

A priority control node adjusts ARP levels for IMS call signals to establish dedicated bearers.

A receiver determines channel availability by transmitting a reservation signal to reserve the communication medium.

A modem identifies duplicate application data units before host forwarding to reduce superfluous network traffic.

Resource conflict indicators allow user equipment to detect and avoid interference, improving network efficiency while reducing energy consumption.

Source and target application controllers coordinate handovers using latency windows to preserve equalized latency during wireless network transitions.

Dynamic weighting prioritizes IoT data blocks by information value, reducing network congestion and conserving energy.

A rate adaptation system selects transmission parameters based on congestion indicators to optimize latency and power consumption.

Terminal devices receive control rules via barcodes or NFC to prevent information leakage without a server.