Network Traffic/Resource Management TRIZ Cases

Fairness counter mechanism schedules low priority packets in wireless access points to prevent starvation during high priority traffic dominance.

A communication control device generates position-based statistical channel information for wireless resource assignment.

A server device manages effective window size using novel start and feedback control algorithms to detect network congestion.

Analyzes specific TCP packet patterns to detect network congestion accurately while reducing power consumption and avoiding protocol modifications.

Base station generates carrier priority index based on idle device count to direct mobile devices toward less congested frequencies.

A user equipment selects a transport block to carry buffer status reports across logical channel groups.

Dynamic per-device bandwidth allocation resolves conflicts between high data rates and diverse UE hardware limits.

A subscriber identity module uses a communication profile to schedule unique login times for network access.

A reception point determines data locations using demodulation reference signal indication information to enable accurate demodulation.

A terminal transmits feedback signals over a shared channel to support direct device-to-device communication.

A terminal determines time domain resource allocation field size based on higher layer signaling.

A secondary node adjusts distributed data volume parameters based on periodic buffering status to adapt to changing transmission rates.

A base station maps data flows to radio bearers using flow identifiers and priorities.

Dynamic bandwidth allocation adapts paging transmission to terminal capabilities, resolving resource utilization inefficiencies.

A station multi-link device coordinates with an access point to manage data transmission across multiple links.

A terminal executes a second resume procedure to transmit data without transitioning to RRC_CONNECTED state.

Terminal device receives physical layer signaling to dynamically determine reference signal time domain resources.

An AI controller monitors Ethernet uplink load to steer wireless stations, resolving capacity bottlenecks in high-data-rate networks.

A network device selects a modulation coding scheme using a known reference payload size to generate accurate feedback within the MAC header.

A resource scheduling method analyzes service parameters to determine optimal network device reservations.

Wireless transceivers adjust transmit burst sizes and modulation thresholds to increase data throughput.

A configuration message carries transmit format data for multiple segment transmissions on a physical shared channel.

A caching system predicts congestion periods to pre-cache video content during off-peak hours.

User equipment regulates playback speed to prevent data overload, enabling the telecommunication network to maintain maximum spectrum utilization efficiency.

User equipment stops non-congestion back-off timers to resolve timer management complexity and ensure reliable session continuity.

A wireless network control system separates data packets into fragments and routes them across multiple backhaul links.

A datalink system prioritizes high-priority messages by delaying lower-priority traffic during congestion.

A dynamic thread scaling mechanism assigns software transmission queues to hardware transmit queues based on real-time load conditions.

Segmented dataflow elements enable formal verification of 5G modem performance while reducing control overhead and testing complexity.

Traffic mapping logic identifies LAS data flows and maps packets to Quality of Service values, resolving maximum DSCP value restrictions.

A wireless receiver detects 20 and 40 MHz signals to manage channel bandwidth dynamically.

Nodes extract application data from packet headers to adapt radio delivery, reducing inspection time and congestion.

A single radio link failure indication message carries the report and failure type to the source cell.

Hardware-controlled finite state machines adjust critical timing in hybrid SPI circuits, resolving software-induced errors in wireless LAN communication.

A resource allocating apparatus adjusts time division vectors to optimize user utilities in cellular networks.

A relay user equipment establishes a common data flow bearer to transmit downlink data once to multiple remote devices.

Terminal device receives control information from multiple network devices to schedule identical data transmission across distinct transmission reception points.

Distinct L2 IDs and QoS profiles manage unicast and multicast traffic, resolving reliability versus complexity trade-offs in V2X networks.

A network device allocates resources to virtual networks based on actual packet transmission parameters.

A shared uplink acknowledgment channel multiplexes multiple users via spreading codes to reduce resource overhead.

Dynamic traffic steering adapts to variable bandwidth and latency, resolving static policy bottlenecks.

Access network device requests resource allocation reference information from an AMF to update radio resources for a network slice group.

Access network devices send slice resource adjustment messages to terminals, directing them to modify current slice resources to target configurations.

Transfer node merges multiple mobile node registration requests into single aggregated signals, reducing administration server processing load and latency.

A terminal configures sidelink radio bearers using QoS information to transmit vehicle-to-everything packets via device-to-device communication.

Evolved Node B senses network congestion and reports status to core entities for dynamic speed adjustment.

A modified TCP/IP stack prioritizes data packets based on real-time RF conditions and user profiles to optimize delivery.