Network Traffic/Resource Management TRIZ Cases

A network node intercepts HTTP adaptive bit rate requests using deep packet inspection to modify media stream identifiers selected by user equipment.

Lock-free array queues eliminate lock overhead to reduce latency during 5G new radio data processing.

Pre-compensating PDU set sizes via destination feedback ratios eliminates resource wastage caused by IP fragmentation and address type changes.

Controller adapts bandwidth allocation in response to QoS degradation messages from access points, preventing packet loss and latency spikes.

Wireless transmit units query sidelink resource usage reports to select available channels, reducing power consumption from continuous sensing.

Broadcasting a transmission restriction control message with validity information resolves hidden station problems and inconsistent congestion responses.

Local eNB performs layer 2 measurement and reports results to a processing entity, resolving incomplete monitoring of system performance.

Source donor nodes store user data packets before relay node migration occurs, preventing data loss and retransmission while maintaining network efficiency.

A distributed software defined network packet core system segments infrastructure into cloud and local instances to manage multiple radio access technologies.

A mobile station generates signaling messages using alternative syntax formats for network access identifiers to establish connections with diverse communication networks.

Base station estimates relay node congestion likelihood to determine optimal data transmission paths for mobile terminals.

A terminal receives indication information from a base station to switch to a standby bandwidth part during switching failures.

Buffering TCP/IP FIN messages delays transmission until higher-value data requires an air-link connection.

Mobile AR client manages user context access by adjusting positioning accuracy and mode based on service demand.

A residential gateway manages network access via a unified SIM authentication architecture across wireline and wireless interfaces.

Destination-based hashing maps identifiers to carriers, reducing receiving UE power consumption by eliminating simultaneous multi-carrier monitoring.

Electronic device detects PDCP version changes and reprocesses buffered data packets to prevent loss during inter-RAT handovers.

Dynamic resource allocation adjusts signal intervals based on reception levels, reducing communication delay in vehicle-to-everything scenarios.

Segments buffer status reports by priority groups to resolve the trade-off between reporting complexity and data transmission efficiency.

Segmented channel access resolves contention inefficiencies in unlicensed bands by assigning dedicated transmission resources to high efficiency stations.

Removing specified fields from Ethernet frames before transmission reduces resource overheads in 5G systems.

User equipment determines a resource hopping pattern to transmit D2D signals across different sub-frames.

Dynamic system frame number offsets synchronize eNBs to reduce packet transmission delays from 5.12 seconds to 20 milliseconds.

Base stations exchange availability messages to reallocate unused resource blocks, resolving interference control versus resource utilization trade-offs.

INTELiCON framework aggregates bandwidth across Wi-Fi and Ethernet interfaces to boost data throughput.

Network slices allocate physical link resources to manage data flows independently.

Network controller assigns client devices to wireless access points based on communication protocols and historical traffic patterns.

A communication controller database stores terminal mode states to notify common modes before connection, reducing wasteful traffic from manual registration.

Embedding real-time noise measurements in clear-to-send frames allows transmitters to adapt encoding rates, resolving channel switching reliability issues.

Access node selects a wireless host device to consolidate multiple active connections into a single link.

A network configuration system generates pseudo-random usage metrics from seed parameters to adjust radio frequency resource allocation.

A base station manages 5G-RAN to E-UTRAN handovers by transmitting requirement and command messages to coordinate user equipment transitions.

Broadcast anchor slots carry encoded audio frames at fixed intervals to enable synchronized playback across multiple receivers.

A terminal switches between autonomous and network-controlled traffic steering modes using a timer to manage access network transitions.

A channel allocation apparatus assigns frequency channels to stations based on their transmission modes.

A communication system switches between primary and secondary access points based on online status to maintain continuous data flow.

Controller monitors bandwidth and response times to tag protocol data, reducing delivery delays during congestion.

Merging multiple access sub-networks into a unified resource pool eliminates single-link data rate limits and prevents service interruptions during handovers.

Segmenting transmission parameters into centralized candidate sets and local selection reduces data transmission latency caused by lengthy relay processing.

A first device performs a backoff operation to synchronize reception response frame transmission across multiple links.

A third-party application server manages terminal data traffic paths within a 5G system using priority-based routing decisions.

A RAN Cache intercepts traffic at standard interface points to extract and cache user payloads within the radio access network.

A cell monitoring system processes key performance indicator data to identify highly utilized network cells through consistency checks.

Modifying PRS transmission parameters with secret keys and random noise to resist frequency-domain symbol-level attacks.

Predictive signal monitoring switches between 60GHz and 2.4GHz links before non-line-of-sight interference causes disconnections.

A wireless communication system dynamically switches terminals to a low frequency band when delay exceeds a threshold.

Subchannel selective transmission resolves frequency utilization inefficiencies in 320-MHz bandwidths by allowing stations to select specific 20-MHz channels.

A relay node resource processing method coordinates backhaul sub-frame configuration during switching to maintain service continuity.

Access point detects congestion and switches terminals to cellular networks, increasing data transmission rates.

LTE network disables carrier aggregation during active voice or video bearers to reduce uplink interference and optimize resource allocation.