Network Traffic/Resource Management TRIZ Cases

Segmenting the resource listening window into discrete time slots reduces terminal power consumption during V2X sidelink reselection.

A header compression system removes the UDP checksum field to reduce transmission overhead.

WTRU MAC-e entity selects allowed MAC-d flow combinations to maintain guaranteed data rates during uplink transmission.

A terminal demodulates data channels using dedicated reference signals instead of common reference signals.

A terminal device cancels random access procedures when buffer status reports transmit via pre-allocated resources.

A WLAN management module dynamically assigns access point identities based on physical switch port connections.

Mobile audio terminals adjust playback speed based on FIFO memory fill levels to maintain synchronized digital signal reproduction.

A WiMAX device exchanges capability messages to dynamically configure communication parameters with neighboring base stations and gateways.

A ranking-based scheduling method determines priority ranks using achievable bit rates and quality of service components.

Dynamic function sharing between base stations reduces front haul bandwidth requirements while maintaining high peak data rates.

A message processor generates a conversation allocation message to pre-allocate up-link and down-link resources for multiple exchanges.

A terminal detects network narrow bandwidth mode and configures its receiving and transmitting channels to match the network settings.

Consolidating individual scoreboards into a common storage unit reduces mounting difficulty and eliminates unnecessary retransmissions in multi-link systems.

A resource allocation system segments data pools by priority to configure transmission periods and reduce signaling overhead.

Segmenting RLC layers into independent instances reduces critical sections, enabling high throughput in complex modem architectures.

User equipment transmits reserved resource indications to prevent improper preemption and reduce sidelink resource collisions.

A Pico-RRU bridges IPv6 routers to low-power sensor nodes using CPRI links and address mapping.

A user equipment dynamically adapts uplink and downlink traffic steering across 3GPP and non-3GPP accesses using control plane signaling.

Prioritizes signaling messages by classification to prevent device overload during high-volume conditions.

Network devices use a TCP proxy to attach cryptographically signed timestamps to packets, preventing spoofing and ensuring reliable latency measurement.

A traffic processing method offloads local data by establishing a local forwarding table at the access device.

NR-V2X nodes release reserved resources based on priority signals, enabling timely transmission of emergent bursty traffic without rigid periodic constraints.

A user equipment transmits buffer status reports identifying carrier frequencies to request sidelink resources.

Separate signaling radio bearer enables dual-connection transmission, improving reliability without increasing system complexity.

A charging system alters subscriber records based on user plane congestion levels received from a radio access network.

Immediate re-sending of undecoded assignments eliminates redundant acknowledgement overhead, reducing communication latency and improving system throughput.

A media access control layer selects an optimal aggregation size based on channel quality metrics to reduce protocol overhead.

Dynamic DRB selection resolves static configuration limits by enabling rapid switching and improving uplink transmission efficiency.

Grouping policy nodes with automated failover resolves load balancing bottlenecks while maintaining service continuity.

Caching services on unmanned aerial vehicles bypasses ground signal attenuation, reducing real-time delays and communication costs for mobile edge computing.

A control apparatus selects communication paths for IAB nodes based on dynamic network information and slice type requirements.

A network configuration module segregates time-sensitive data from best-effort traffic using dynamic driver settings.

Radio access network intelligent controller allocates physical resource blocks based on channel quality and video stream rate.

Status indication messages between E2 nodes and Near-RT RIC prevent network overloading from excessive connected devices.

Reconfiguring the receive filter creates an IMD shunt path that suppresses distortion products, improving desense performance without adding cost.

Orthogonal waveform assignment differentiates node-specific reservation responses, reducing unnecessary yielding and improving spectrum sharing efficiency.

A communication node apparatus dynamically adjusts reception interface aggregation to maximize performance across multiple transmission paths.

First user equipment detects resource conflicts from second devices and transmits specific conflict indications to prevent transmission failures.

A mobile network element transmits a first identifier to terminal devices, enabling direct data packet transfer to core network entities.

Nested non-legacy headers extend legacy structures to support multi-user MIMO and channel bonding, resolving IEEE 802.11ad data rate limitations.

User anchor controller assigns users to network controllers for automatic uplink selection.

Centralized forwarding tables map TSN uplink streams to QoS flows, reducing user equipment complexity.

AP MLD frames restrict non-AP device multi-link setup on clean links, preventing low-latency service interference from non-low-latency traffic.

A radio resource allocation method adjusts transmission rates for elastic sessions to optimize network capacity.

A controller adjusts Admit and Discard RSSI thresholds to equalize average throughput across co-located access points.

A network system segments fronthaul traffic across active ports to balance load distribution.

Network devices exchange channel occupancy information to negotiate frequency switching and generate idle channels.

A radio transmission unit inserts data communication packets into specific audio frame positions to enable high-speed transfer.

Terminal devices in non-public networks access IMS services through public land mobile network interworking using specific indication information.

Dynamic subchannel operation assigns frequency resources to stations, resolving unused bandwidth in wideband networks.