Microsoft AZ-700 Bundle

This alternative provides managed stateful network and application filtering without Premium-only inspection, which solves a different networking task. It does not directly use the Premium tier's supported TLS inspection and advanced threat features.

That approach uses firewall diagnostic events and threat intelligence signals to investigate blocked and allowed traffic; it does not replace Azure Firewall Premium for TLS inspection for the constraint in this scenario.

This alternative fits eligible smaller workloads when advanced throughput and security features are not required, which solves a different networking task. It does not directly use the Premium tier's supported TLS inspection and advanced threat features.

Although Service endpoint public address distinction retains public service endpoint addressing while changing private subnet routing and service firewall identity, that is not sufficient to use an approved private endpoint with hybrid DNS and VPN/ExpressRoute reachability when on-premises clients require private PaaS access in this case.

This alternative associates an approved service endpoint policy with the intended endpoint-enabled workload subnet, which solves a different networking task. It does not directly use an approved private endpoint with hybrid DNS and VPN/ExpressRoute reachability when on-premises clients require private PaaS access.

This alternative verifies whether the selected PaaS resource type supports service endpoints before planning access, which solves a different networking task. It does not directly use an approved private endpoint with hybrid DNS and VPN/ExpressRoute reachability when on-premises clients require private PaaS access.

Azure Firewall Policy across regions centralizes managed firewall settings and reusable rule collections. The current problem instead requires a control that organizes matching firewall rules with correct ordering and actions.

This alternative provides centrally proxied DNS resolution for supported FQDN-based network policy, which solves a different networking task. It does not directly organize matching firewall rules with correct ordering and actions.

Azure Firewall DNAT rule is useful when the goal is to translate an approved public destination address and port to a protected internal service. Here, the required behavior is to organize matching firewall rules with correct ordering and actions.

Internal Load Balancer frontend is useful when the goal is to expose a private VNet IP address for a load-balanced service rather than a public endpoint. Here, the required behavior is to enable a supported internal load balancer to handle a range of all TCP and UDP ports for NVA scenarios.

This choice distributes TCP or UDP flows to healthy backend instances in an Azure region. It leaves the specific need to enable a supported internal load balancer to handle a range of all TCP and UDP ports for NVA scenarios unaddressed.

That approach uses the current supported load balancer SKU with configurable health and security behavior; it does not replace Load Balancer HA ports for the constraint in this scenario.

That approach provides the reserved firewall subnet for the managed Azure Firewall deployment; it does not replace Address and subnet allocation inventory for the constraint in this scenario.

Nonoverlapping VNet CIDR planning prevents address collisions between Azure networks and corporate routes. The current problem instead requires a control that tracks CIDR ownership, free space and subnet relationships before deployment.

That approach accounts for Azure-reserved addresses and workload growth in each subnet; it does not replace Address and subnet allocation inventory for the constraint in this scenario.

This choice re-encrypts or retains HTTPS between the gateway and validated backend endpoints. It leaves the specific need to terminate client HTTPS on the gateway with the appropriate certificate and listener unaddressed.

That approach provides managed regional Layer 7 routing, TLS termination and web traffic distribution; it does not replace Application Gateway TLS termination for the constraint in this scenario.

This alternative adjusts supported v2 gateway capacity automatically to demand within configured boundaries, which solves a different networking task. It does not directly terminate client HTTPS on the gateway with the appropriate certificate and listener.

This alternative supports dynamic routing-based IPsec connectivity between Azure and a corporate VPN device, which solves a different networking task. It does not directly align matching tunnel cryptographic parameters between Azure gateway and on-premises VPN device.

This alternative records on-premises VPN endpoint addresses and remote prefixes for an Azure S2S connection, which solves a different networking task. It does not directly align matching tunnel cryptographic parameters between Azure gateway and on-premises VPN device.

Although On-premises VPN device policy matching aligns corporate firewall route, access and selector rules with Azure connection design, that is not sufficient to align matching tunnel cryptographic parameters between Azure gateway and on-premises VPN device in this case.

ExpressRoute gateway on VNet is useful when the goal is to connect a VNet to an ExpressRoute circuit through the managed gateway. Here, the required behavior is to provide private routing to VNet private address spaces over an ExpressRoute circuit.

This choice creates the provider-backed private connectivity circuit before linking Azure VNets. It leaves the specific need to provide private routing to VNet private address spaces over an ExpressRoute circuit unaddressed.

ExpressRoute encryption over private connectivity is useful when the goal is to add a supported encryption overlay when private circuit transport alone is insufficient. Here, the required behavior is to provide private routing to VNet private address spaces over an ExpressRoute circuit.

Allow forwarded traffic on VNet peering permits forwarded packets between peered VNets through a hub appliance where appropriate. The current problem instead requires a control that connects two Azure virtual networks over the Microsoft backbone without a VPN appliance.

Although Azure Virtual Network Manager connectivity groups centrally coordinates VNet connectivity topology across many subscriptions, that is not sufficient to connect two Azure virtual networks over the Microsoft backbone without a VPN appliance in this case.

This choice links the private DNS zone to the VNet where clients need its records rather than assuming VNet peering provides name resolution. It leaves the specific need to connect two Azure virtual networks over the Microsoft backbone without a VPN appliance unaddressed.

That approach applies a NAT Gateway's outbound SNAT behavior to a selected subnet; it does not replace Route table association to subnet for the constraint in this scenario.

Effective routes and next-hop diagnosis is useful when the goal is to reveal which system, BGP or user route determines an actual VM next hop. Here, the required behavior is to apply a defined user route collection to the workload subnet.

This choice directs selected subnet traffic to a nominated next-hop NVA address. It leaves the specific need to apply a defined user route collection to the workload subnet unaddressed.

This choice supports site-to-site, point-to-site, ExpressRoute and transitive VNet hubs in one managed topology. It leaves the specific need to terminate VPN connections from branches within the managed virtual hub unaddressed.

This choice sizes a managed virtual-hub gateway for required bandwidth and connections. It leaves the specific need to terminate VPN connections from branches within the managed virtual hub unaddressed.

Virtual WAN hub VNet connection is useful when the goal is to attache a workload VNet to a managed virtual hub for connectivity and route propagation. Here, the required behavior is to terminate VPN connections from branches within the managed virtual hub.