Network Traffic/Resource Management TRIZ Cases

Segmented forwarding rules reduce configuration workload when terminal members join or leave the 5G local area network group.

A communication apparatus selects network slice and function instances using NSSAI feedback from user equipment.

A user equipment cancels listen before talk recovery responses upon detecting specific network triggers.

Scheduling uplink and downlink carriers with variable separation reduces receiver noise without external SAW filters.

Segmenting control channels into resource units with a combinatorial index reduces signaling overhead while ensuring accurate detection reliability.

Terminal agents use MCV control theory to forecast router queue sizes and adjust uplink resource requests dynamically.

Threshold-based gradual frequency adjustment minimizes phase shifts and interference in non-terrestrial network uplinks.

A system shares congestion information among user terminals to manage data transfer rates effectively.

A base station pools processing power across multiple cell processors to distribute computational resources based on real-time traffic loads.

Mixed integer programming optimizes radio access node placement to balance coverage and capacity demands while minimizing interference costs.

Code book database maps invariant header fields to shorter codes, reducing bandwidth consumption while maintaining throughput over radio networks.

A network apparatus constrains subscriber data flows by monitoring aggregate rates against defined slice limits.

A base station postpones resource allocation for a V2X bearer to maintain context.

Transmitting device manages QoS flow mapping between data radio bearers to mitigate packet out-of-order and loss during handovers.

A station allocates wireless channel resources and performs listen before talk to transmit data when the medium is clear.

Reflective EPS bearers allow user equipment to send uplink packets via the same bearer as received downlink packets.

A user equipment skips uplink transmission when a protocol data unit contains only padding buffer status reports.

Dynamic service prioritization assigns category IDs to group services, allowing the network to adjust resource allocation based on current conditions.

A dynamic bit rate adjustment mechanism allocates network resources based on real-time availability and content requirements.

User equipment groups logical channel buffers into a common pool for uplink reporting.

A relay station counts received ranging codes and reports the total to a base station using modified resource allocation messages.

The user terminal corrects transport block size using symbol counts in each transmission time interval, resolving throughput drops caused by variable coding rates.

Selective NBIFOM capability signaling reduces signaling overhead in heterogeneous networks by transmitting support information only when required.

A terminal device selects a small data packet transmission mechanism based on pre-configured conditions to optimize resource usage.

Segmenting filters between gateways and user equipment reduces processing resources and signaling overhead.

A header compression controller dynamically adjusts field instruction priorities and generates rules based on processing context to optimize data transmission.

Segment transmission devices into tracking sets to reduce channel resource occupation while maintaining accurate user equipment location.

Assigning priority levels to presence reporting areas allows the mobility management entity to selectively suspend updates for lower priority zones.

A base station relocates isolated terminals to surrounding access points to improve network throughput.

A VoLTE bandwidth aggregation method applies hysteresis to reserve resources based on previous usage states.

A MAC control element synchronizes packet duplication across base stations, resolving reliability and synchronization complexity contradictions.

Segmenting services into specific groups reduces signaling overhead while maintaining high processing efficiency for diverse network requirements.

Flexible SRS resource allocation scheme divides resources into fast and slow pools to support uplink frequency selective scheduling in combined cells.

A wireless device reserves resources for initial transmission and retransmission, dynamically switching to alternative resources based on congestion levels.

Dynamic resource identifier modification directs traffic to appropriate servers, reducing strain on origin computing resources.

A computing system selects optimal video processing tool combinations based on real-time performance measurements.

A controller estimates available bandwidth using historical communication state information to control encoding parameters.

A network node distributes traffic among service nodes using capacity profiles.

A centrality-based orchestration method groups industrial network nodes into clusters to optimize resource allocation and reduce packet collisions.

A station combines congestion signals from multiple access points to dynamically adjust EDCA parameters.

A gateway intercepts control signaling to determine and reserve resources for media streams in wireless networks.

Electronic device generates resource indication information to guide bandwidth-limited remote devices toward available discovery resources.

A network node verifies aggregate bandwidth limits before delivering background data to multiple user equipments.

User equipment relays missed packets via unicast sidelink communications, reducing power consumption and network traffic.

A mobile node manages local radio connections using a fixed-duration timer to trigger transitions between device-to-device and base station links.

RRC message remapping enables independent scheduler operation across cell groups to optimize radio resource allocation.

A data transmission control method detects load characteristics to restrict or interrupt communication when thresholds are exceeded.

Stations negotiate access point parameters to set variable preamble extension durations, resolving fixed-length inefficiencies during capability transitions.

Prioritizing unlicensed bandwidth parts reduces signaling overhead and conserves radio resources during listen-before-talk operations.