A Transit Gateway provides network connectivity between attachments and does not transfer control of a shared VPC's route tables. The participant's permission boundary is defined by VPC sharing, not the presence of a transit gateway.

AWS RAM permits eligible participants to consume shared subnets; it does not make them co-owners of their route tables. The central account remains responsible for VPC routing decisions and subnet network controls.

A shared subnet has the owner's actual subnet route-table association, not a different route table for every consuming account. Separate copies would not explain the centralized network behavior of VPC sharing.

Although this setting allows the standard transport used by most ordinary recursive DNS exchanges, TCP-only access can leave typical UDP-based DNS questions unanswered; this concerns complete supported DNS transport for the hybrid path, not the specified selective on-premises-to-VPC DNS forwarding and cloud-to-corporate DNS integration.

The proposed action extends the centralized forwarding configuration to the intended workload networks; creating one endpoint does not automatically configure other VPC resolvers, supporting consistent multi-account corporate DNS routing but leaving selective on-premises-to-VPC DNS forwarding and cloud-to-corporate DNS integration unmet.

Although this setting grants the VPC resolver visibility into the zone's private records, transit data-plane reachability does not automatically create hosted-zone association; this concerns private-zone name resolution in the newly attached VPC, not the specified selective on-premises-to-VPC DNS forwarding and cloud-to-corporate DNS integration.

This alternative refreshes the authoritative internal DNS answer for associated VPCs; DNS TTL propagation must be considered when assessing when clients observe changes, so it addresses correct private service address after migration rather than the required restored public DNS authority after zone recreation.

Although this setting signs the zone and connects the chain of trust to its delegation, both key configuration and parent DS publication matter for validators; this concerns cryptographically verifiable authoritative public DNS, not the specified restored public DNS authority after zone recreation.

The proposed action maps apex names to supported AWS resources without an apex CNAME; ordinary CNAME records are restricted at a zone apex, supporting valid apex routing to CloudFront but leaving restored public DNS authority after zone recreation unmet.

The proposed action acquires the domain registration and points it at the chosen DNS authority; hosting records is separate from owning the registration for the name, supporting registrar ownership plus hosted-zone delegation but leaving authoritative DNS migration at the delegation layer unmet.

This alternative links the parent delegation cryptographically to the child zone's signing keys; adding a TXT record does not substitute for a delegation signer record, so it addresses an established DNSSEC chain of trust rather than the required authoritative DNS migration at the delegation layer.

Although this setting signs supported public DNS records with cryptographic keys, validation also requires a correct chain of trust from the parent domain; this concerns authenticity validation of authoritative DNS data, not the specified authoritative DNS migration at the delegation layer.

The proposed action makes the central appliance a required hop for both directions of permitted flows; an attached firewall without appropriate transit route steering sees no packets, supporting routed inline inspection between spokes but leaving managed policy-based network filtering at a central hop unmet.

This approach supplies GENEVE-based traffic distribution to supported appliances; a conventional NLB does not implement the same service-insertion endpoint path, which helps with scaled transparent inspection with third-party devices instead of delivering managed policy-based network filtering at a central hop.

This alternative ensures state tracking sees both directions of the session; policy correctness alone cannot repair asymmetric data-plane forwarding, so it addresses symmetric routed firewall traversal rather than the required managed policy-based network filtering at a central hop.

This alternative evaluates a modeled routing path through transit gateway route tables; a general health-check probe does not describe transit route resolution, so it addresses transit-layer path assessment between attachments rather than the required visibility into multi-Region WAN attachment relationships.

Although this setting aggregates WAN and AWS network telemetry across managed connections, individual interface packet captures do not provide a persistent WAN health overview; this concerns consolidated operational status for global links, not the specified visibility into multi-Region WAN attachment relationships.

This approach aligns registered branch inventory with its logical connectivity metadata; CloudFront access logs cannot discover WAN site registration gaps, which helps with accurate branch-to-transit topology inventory instead of delivering visibility into multi-Region WAN attachment relationships.

This alternative distinguishes management inventory from data-plane forwarding; adding a device to a topology map does not establish TGW or VPC routes, so it addresses correct operations model for managed network topology rather than the required visibility into multi-Region WAN attachment relationships.

This alternative decouples network deployment definitions from fixed environment-specific identifiers; blindly copying IDs from one Region can reference nonexistent resources, so it addresses portable networking configuration across accounts rather than the required programmatic reuse of network infrastructure components.

Although this setting deploys VPC, subnet, routing and related resources as declarative stacks, console-only manual changes increase configuration drift and inconsistency; this concerns reproducible multi-account network construction, not the specified programmatic reuse of network infrastructure components.

The proposed action previews planned stack mutations and replacement behavior; an immediate update hides the proposed resource transition until it is underway, supporting controlled network infrastructure change review but leaving programmatic reuse of network infrastructure components unmet.

Individual rules can technically restrict each source range, but they create many independent policy copies. That does not satisfy the requirement to update a centralized approved address set once.

AWS-managed prefix lists represent AWS-defined service address ranges and cannot be edited by customers. An S3 service range is not a substitute for the company's trusted office-source list.

Private hosted zones publish DNS records and control name resolution within associated VPCs. Security-group source rules use CIDRs, security-group references, or supported prefix lists, not automatic DNS-to-source authorization.

Although this setting records packet-flow metadata and network allow or reject disposition, application database logs will not see packets denied before arrival; this concerns forensic visibility into database connection attempts, not the specified durable governed network activity evidence and better attribution of original communicating IP endpoints.

This approach treats absence of flow metadata as incomplete evidence rather than certainty; not all AWS-reserved traffic is recorded like an ordinary ENI flow, which helps with defensible interpretation of VPC flow record gaps instead of delivering durable governed network activity evidence and better attribution of original communicating IP endpoints.

This alternative supports SQL analysis of archived network records; CloudTrail does not provide per-connection byte counts for data-plane network flows, so it addresses historical large-scale flow anomaly investigation rather than the required durable governed network activity evidence and better attribution of original communicating IP endpoints.

This alternative forwards the destination CIDR toward the peer transit gateway; TGW peering does not propagate remote VPC prefixes automatically, so it addresses local transit routing to a peered Region rather than the required an active regional transit peer attachment.

Although this setting applies separate regional routing decisions on each side of the peering, peering does not merge or synchronize transit route tables; this concerns deliberate cross-Region reachability policy, not the specified an active regional transit peer attachment.

The proposed action supplies global segment governance beyond manually peered transit gateways; Cloud WAN migration still requires explicit attachment planning and route-domain design, supporting scalable centrally policy-controlled multi-Region transit but leaving an active regional transit peer attachment unmet.

This approach controls the AWS-side prefixes permitted for advertisement toward on-premises peers; TGW route tables still control packet forwarding independently of allowed prefix lists, which helps with controlled hybrid prefix advertisement instead of delivering valid public VIF route advertisements.

This alternative establishes the BGP adjacency required to exchange reachable private prefixes; a physical up state does not establish BGP neighbors automatically, so it addresses active layer-three routing across the private VIF rather than the required valid public VIF route advertisements.

The proposed action satisfies the distinct-ASN requirement of the TGW-DX gateway association; changing a VPC route table will not repair an ASN association conflict, supporting valid DX gateway-to-transit gateway association but leaving valid public VIF route advertisements unmet.

This approach provides the VIF type supported for DX gateway-to-TGW route exchange; the transit VIF and TGW-DX gateway association form the supported attachment path, which helps with correct interface type for transit gateway connectivity instead of delivering valid public VIF route advertisements.