Data Switching By Path Configuration TRIZ Cases

A network interface device directs communications between serially coupled information handling systems using target location numbers.

Targeted edge identification reduces network congestion and discovery time by mapping only sufficient paths for firmware delivery.

A router determines user logical environments to route service requests to specific application clusters.

A PE router selects a logical interface to perform VRF table lookups, enabling tunnel establishment across networks with unsupported intermediate devices.

A network packet receiving apparatus manages descriptor credits via a shared buffer to optimize hardware resource utilization.

A network design device adjusts problem scale based on solver arithmetic performance to optimize path, device, and port configurations.

A scheduling method determines transmission intervals using quality of service and channel status data.

A network system dynamically allocates dedicated egress per flow queues to manage incoming data streams.

A network acceleration architecture separates data-intensive hardware operations from software protocol processing via an asynchronous dual-queue interface.

Embedding a topology digest in data packets prevents routing loops caused by inconsistent node views, maintaining network efficiency.

A communication device sends location data as a message containing a network identifier for map display.

Receive side scaling distributes packets across multiple processors to overcome protocol stack latency and maximize network speeds.

SCLP firmware identifies stacking ports and applies dynamic blocking actions to maintain a loop-free topology while ensuring network redundancy.

A hardware switch embedded in a physical network interface card enables direct Ethernet frame forwarding between guest operating systems.

A packet splitting method separates headers into on-chip memory for direct CPU access while keeping payloads in system memory.

A radio base station scheduler allocates resource blocks using predetermined bandwidth and transmission time intervals to manage downlink and uplink channels.

An Ethernet bridge ranks equal cost paths by link utilization to distribute traffic across the network.

Virtual edge systems share state information to process network traffic simultaneously, eliminating idle standby resource waste.

Optical network topology hierarchy segments traffic into overlay networks to reduce latency skew across data center infrastructure.

Detecting application signaling messages to dynamically adjust broadband access bandwidth allocation, resolving quality versus resource utilization trade-offs.

A synchronized network node distributes software components to connected devices, resolving system complexity and synchronization time trade-offs.

Node-specific nickname fields in I-SID Address TLVs reduce unnecessary multicast state data generation and simplify SPF computation in Layer 3 applications.

Virtual nodes buffer server traffic to reduce network overload and latency in peer-to-peer wireless overlay networks.

Nodes query alternate address mappings to identify packet flows across NAT devices, maintaining consistent traffic monitoring.

Average priority filtering reduces TCP retransmission latency and bandwidth waste in multiplexed ICA streams.

A classifier routes network packets into temporary data structures linked to virtual serialization queues for specific protocols.

A bandwidth optimization system relocates inefficient connections to optimal paths using WDM, TDM, and packet components.

Switch Fiber Interactive Link Service protocol propagates attributes automatically, resolving manual configuration inefficiency and misconfiguration risks.

Segmented interface layers reduce control time by merging device selection with state adjustment actions.

Network devices authenticate VoIP caller identity by embedding validity indicators in SIP signaling to counter spoofing.

An endpoint mapping system correlates call legs using stored identity data, resolving the trade-off between measurement precision and device complexity.

Access network maps priority levels to access classes to optimize resource allocation during overload conditions.

Subscriber Location Function detects incompatibilities between I-CSCF and HSS, returning compatible proxy routing to ensure uninterrupted message delivery.

DHCP option relay allows remote management processors to automatically notify servers of their assigned IP addresses, eliminating manual configuration delays.

Application context transfer enables proactive resource preparation in mobile network nodes during handovers.

An IoT voice interface device processes explicit commands alongside sensor data to identify implicit user intent.

Merging unicast streams into one multicast channel reduces network bandwidth consumption while maintaining reliable delivery across multiple nodes.

A multicast source adjusts broadcasting parameters and transmits an identifier in a signaling channel to update receivers.

A network protection architecture establishes dedicated links to manage port states and enable rapid switching.

Off-chip secondary memory stores fixed-bit packet lengths to reduce die area while maintaining fast retrieval speed.

A network node associates MAC addresses with IP addresses to selectively forward link level messages based on target identification.

A user agent specifies filters in SIP SUBSCRIBE messages to receive only desired Dialog-Info Event package state information.

Nodes store neighbor packets and apply simple XOR coding rules to reduce transmission time while maintaining reliability against packet loss.

A network device uses a protocol blind path indication unit to generate packets with predetermined path indicators.

A DNS system issues routing vouchers to authorized end-hosts, enabling routers to forward only valid data packets across the network.

A modular forwarding system selects uplinks based on traffic load measurements to distribute network packets across multiple paths.

A packet processor manages metadata identifiers to enable stateful inspection at wire speeds.

A group communication protocol in mobile ad-hoc networks merges intermediate links into a single branch to form an efficient transmission tree.

Pre-stored device identifiers enable automatic network parameter configuration, reducing manual setup complexity and technical support calls.