Representative baseline measurements are necessary to attribute later performance changes rather than relying only on a post-change snapshot; that addresses defensible before-and-after network performance comparisons, rather than automated alerting on Direct Connect connectivity state.

CloudFront request logs document delivered CDN requests and response details rather than internal VPC flow metadata; this belongs to edge HTTP request accounting, while the problem is automated alerting on Direct Connect connectivity state.

In the metadata-level accept and reject visibility workflow, flow Logs record network-flow metadata and actions for monitored resources, not full application payload bytes; the current case needs automated alerting on Direct Connect connectivity state.

Flow metadata addresses connectivity while HTTP access records reveal application responses, allowing the two failure layers to be separated; that addresses correlation of transport connectivity with application-layer denial, rather than consolidated searchable network flow history.

ConnectionState communicates physical/logical connection availability and allows actionable alerting on link state changes; this changes automated alerting on Direct Connect connectivity state, not the necessary consolidated searchable network flow history.

In the metadata-level accept and reject visibility workflow, flow Logs record network-flow metadata and actions for monitored resources, not full application payload bytes; the current case needs consolidated searchable network flow history.

Flow Logs record network-flow metadata and actions for monitored resources, not full application payload bytes; that addresses metadata-level accept and reject visibility, rather than network flow metadata and ALB HTTP request logs.

ConnectionState communicates physical/logical connection availability and allows actionable alerting on link state changes; this belongs to automated alerting on Direct Connect connectivity state, while the problem is network flow metadata and ALB HTTP request logs.

Flow metadata addresses connectivity while HTTP access records reveal application responses, allowing the two failure layers to be separated; this changes correlation of transport connectivity with application-layer denial, not the necessary network flow metadata and ALB HTTP request logs.

This produces interpretation of routed paths through transit connectivity: Route and attachment inspection reveals how a destination is selected, which CloudWatch utilization metrics alone cannot explain; the stem instead tests network flow metadata and ALB HTTP request logs.

Reachability Analyzer performs static configuration analysis to explain an allowable path or blocking network component; that addresses model-based reachability verification, rather than interpretation of routed paths through transit connectivity.

ConnectionState communicates physical/logical connection availability and allows actionable alerting on link state changes; this belongs to automated alerting on Direct Connect connectivity state, while the problem is interpretation of routed paths through transit connectivity.

In the cross-network topology and connectivity event inventory workflow, network Manager brings transit gateway and hybrid connectivity topology and event visibility into a centralized networking view; the current case needs interpretation of routed paths through transit connectivity.

CloudFront request logs document delivered CDN requests and response details rather than internal VPC flow metadata; that addresses edge HTTP request accounting, rather than correlation of transport connectivity with application-layer denial.

Flow Logs record network-flow metadata and actions for monitored resources, not full application payload bytes; this belongs to metadata-level accept and reject visibility, while the problem is correlation of transport connectivity with application-layer denial.

Collecting flow logs consistently across VPCs provides evidence for analysis of communication patterns without deploying packet sensors on every host; this changes consolidated searchable network flow history, not the necessary correlation of transport connectivity with application-layer denial.

IPsec tunnels can establish encrypted AWS connectivity without waiting for Direct Connect cross-connect provisioning; that addresses fast establishment of encrypted hybrid connectivity, rather than physical redundancy across interconnect facilities.

The LOA-CFA identifies the approved circuit termination and facility details needed for the physical cross-connect; this belongs to physical cross-connect authorization at the interconnect facility, while the problem is physical redundancy across interconnect facilities.

In the heterogeneous backup path for circuit outages workflow, an independent IPsec tunnel over the Internet provides a separate transport failure domain when the dedicated circuit becomes unavailable; the current case needs physical redundancy across interconnect facilities.

An independent IPsec tunnel over the Internet provides a separate transport failure domain when the dedicated circuit becomes unavailable; that addresses heterogeneous backup path for circuit outages, rather than fast establishment of encrypted hybrid connectivity.

Direct Connect provides dedicated transport, while the layered VPN supplies IPsec encryption absent from ordinary VIF forwarding; this belongs to encrypted hybrid traffic on dedicated transport, while the problem is fast establishment of encrypted hybrid connectivity.

In the private-IP hybrid routing to a VPC workflow, A private VIF exchanges private network routes for VPC connectivity instead of exposing the public AWS service address space; the current case needs fast establishment of encrypted hybrid connectivity.

A public VIF establishes BGP reachability for supported AWS public endpoints over the dedicated connection without turning them into private IP resources; that addresses AWS public service routing over Direct Connect, rather than Direct Connect transit access to many routed VPCs.

RAM lets separate accounts create and use approved attachments to a centrally managed transit gateway while retaining account boundaries; this belongs to cross-account consumption of shared transit routing, while the problem is Direct Connect transit access to many routed VPCs.

In the dynamic GRE overlay integration with transit routing workflow, transit Gateway Connect provides GRE overlay connectivity and BGP route exchange for supported SD-WAN and virtual router appliances; the current case needs Direct Connect transit access to many routed VPCs.

A VGW provides VPC edge connectivity, whereas branch-to-branch transit requires a supported hub service or an appropriately designed VPN topology; this belongs to branch-to-branch transit beyond isolated VPC edge gateways, while the problem is private-IP hybrid routing to a VPC.

Geographic and facility diversity protects against a single colocation or circuit fault that redundant VLANs on one port cannot survive; this changes physical redundancy across interconnect facilities, not the necessary private-IP hybrid routing to a VPC.

In the private-addressed IPsec encryption on dedicated hybrid links workflow, private IP VPN can run IPsec tunnels on a Direct Connect path using private endpoint addresses and centralized transit routing; the current case needs private-IP hybrid routing to a VPC.

This produces fast establishment of encrypted hybrid connectivity: IPsec tunnels can establish encrypted AWS connectivity without waiting for Direct Connect cross-connect provisioning; the stem instead tests private-IP hybrid routing to a VPC.

Direct Connect provides dedicated transport, while the layered VPN supplies IPsec encryption absent from ordinary VIF forwarding; that addresses encrypted hybrid traffic on dedicated transport, rather than AWS public service routing over Direct Connect.

Transit VIFs connect on-premises routers to transit gateways through Direct Connect gateways, reducing per-VPC VIF sprawl; this belongs to Direct Connect transit access to many routed VPCs, while the problem is AWS public service routing over Direct Connect.

In the correct VLAN encapsulation for hybrid BGP sessions workflow, the VIF's VLAN is the layer-two demultiplexing identity, so an incorrect tag prevents expected frames from reaching the BGP peer; the current case needs AWS public service routing over Direct Connect.

A public VIF establishes BGP reachability for supported AWS public endpoints over the dedicated connection without turning them into private IP resources; this belongs to AWS public service routing over Direct Connect, while the problem is encrypted hybrid traffic on dedicated transport.

IPsec tunnels can establish encrypted AWS connectivity without waiting for Direct Connect cross-connect provisioning; this changes fast establishment of encrypted hybrid connectivity, not the necessary encrypted hybrid traffic on dedicated transport.

In the heterogeneous backup path for circuit outages workflow, an independent IPsec tunnel over the Internet provides a separate transport failure domain when the dedicated circuit becomes unavailable; the current case needs encrypted hybrid traffic on dedicated transport.