Network Traffic/Resource Management TRIZ Cases

DualSteer MA-PDU sessions steer traffic across multiple access legs to resolve Quality of Service bottlenecks without permanently increasing device complexity.

A controller adjusts inter-frequency load balancing parameters using machine learning analysis of real-time cell conditions.

A second radio access network node translates bearer-level QoS parameters to flow-level QoS parameters for secondary RAT configuration.

Terminals assign distinct failure cause values during packet switched handovers, allowing networks to differentiate causes and optimize resource allocation.

A vehicle processor routes data to a local wireless device when cellular signals are unavailable.

A device connects to a packet data network through multiple simultaneous data channels to increase available bandwidth.

A User Plane Function transmits Pack Data Unit set indicators via a GTP-U extension header to the Radio Access Network.

Segmenting file requests by key value balances traffic across finger nodes, preventing intermediate node bottlenecks and maintaining responsiveness.

A UE selects sidelink resource pools based on CBR/CR measurements and QoS requirements to optimize wireless network allocation.

Dynamic selection of multiple-access manners resolves the contradiction between coverage strength and data transmission rate.

Dynamic sink-node scheduling minimizes end-to-end delay and schedule size in convergecast networks with non-uniform data release times.

An IoT network packet transmit mode controller selects immediate transmission paths to bypass legacy processing overhead.

A wireless user equipment scans access points by detecting beacon frames to identify channel congestion levels before initiating active scanning procedures.

Processor scans external devices and calculates data traffic rates from beacon frames to select the optimal connection.

Compressing oversized RRC messages before packaging into PDCP PDUs resolves the contradiction between message length and transmission reliability.

Dynamic handover thresholds redirect terminals from overloaded base stations to adjacent nodes, preserving QoS and transmission rates during network congestion.

A base station configures separate buffer status reports for distinct logical channels to manage uplink grants accurately.

Automatic topology discovery via X2 snooping eliminates manual MPLS configuration, reducing operational complexity while maintaining stable network stability.

Application server aggregates road side unit data to predict congestion and provide assistance information for decentralized control.

Direct base station interfaces route local traffic to reduce core network loading and transmission delays while maintaining centralized control.

Prioritizing the S criterion over H criteria resolves resource waste and out-of-service risks during high-mobility transitions.

Embedding upper layer signaling in RRC messages reduces handshake latency and processor utilization during unicast connection setup.

Network device allocates frequency domain resources to terminals based on bandwidth capability for efficient information monitoring.

Rearranging time frequency frame allocations reduces control signaling overhead by adapting packet prioritization based on buffer status.

A MAC layer estimates symbol error rate via RSSI sampling to forward low-error packets directly to higher layers.

Positioning packets within preferred channel slot zones using statistical profiles reduces collision rates and minimizes resource wastage from retries.

Segmenting the protocol stack reduces CPRI bandwidth requirements and cell interference while increasing system capacity.

A server generates and transmits available frequency band information to heterogeneous access points.

Segmented location numbers enable asynchronous updates on mobile switching centers to apply dynamic discounts during service requests.

Forwarding device autonomously updates flow tables to perform traffic measurements without controller queries.

A wireless device discards a failed random access data packet to continue transmission with a second prepared packet.

A MAC PDU subheader includes a first information field to indicate the presence of a length indication L field.

Dynamic priority adjustment for short buffer status reports resolves latency bottlenecks in mixed ultra-reliable low latency communication scenarios.

Dynamic policy exchange resolves rigid enforcement by sharing location and time data across networks for consistent QoS.

An override bit in user plane packets directs UE reflective mapping precedence, resolving conflicts between explicit signaling and temporary QoS flow changes.

Reduced step sizes in new buffer size tables indicate precise data volumes, eliminating padding waste and power consumption in high throughput 5G networks.

User equipment discards RAN visible application layer measurement reports when signaling radio bearers are unavailable.

A processor switches communication schemes based on temperature sensor readings to manage power usage.

A network controller system provides a simplified API for application developers to configure quality of service settings.

Wireless devices group data units into protocol data unit sets to assign quality of service levels and manage transmission parameters.

Trigger frames allocate specific resource units to boundary stations, resolving insufficient transmission power issues in wireless local area networks.

A wireless access point adjusts airtime fairness ratios based on application priority to optimize network resource distribution.

A Next Generation Broadcast Platform pools licensed spectrum for dynamic allocation using software-defined networking and network function virtualization.

A non-deterministic finite automata tree structure correlates multiple network events to determine function status.

A base station adjusts active antenna ports to maintain optimum system load.

A dedicated resource pool mechanism allocates sidelink resources based on highest priority SLCH values to improve transmission efficiency.

Radio protocol stack buffers non-critical uplink data based on importance values to optimize resource utilization.

A first node redistributes bandwidth based on real-time quality of service thresholds to maintain network performance.

Dynamic handover threshold adjustment modifies signal levels to balance cell loads, preventing repeated handovers caused by inconsistent measurements.

A terminal device determines target resources using time indices and configuration information to control resource granularity.