Microsoft AZ-700 Bundle

Front Door WAF policy association applies supported application-layer rules at the globally distributed edge. The current problem instead requires a control that provides globally distributed edge entry points with accelerated HTTP/S routing to origins.

Although Front Door end-to-end TLS protects client-to-edge and edge-to-origin traffic with compatible HTTPS settings, that is not sufficient to provide globally distributed edge entry points with accelerated HTTP/S routing to origins in this case.

Front Door Rules Engine redirect is useful when the goal is to return an HTTP redirect to the client for an approved URL transformation. Here, the required behavior is to provide globally distributed edge entry points with accelerated HTTP/S routing to origins.

This choice inspects tunnel state, negotiated parameters and gateway logs before changing routes. It leaves the specific need to validate routing, NSGs and return paths after IPsec reports connected unaddressed.

This alternative updates peer and local network gateway settings together during a branch cutover, which solves a different networking task. It does not directly validate routing, NSGs and return paths after IPsec reports connected.

IPsec/IKE policy interoperability aligns matching tunnel cryptographic parameters between Azure gateway and on-premises VPN device. The current problem instead requires a control that validates routing, NSGs and return paths after IPsec reports connected.

S2S reachability verification beyond tunnel state validates routing, NSGs and return paths after IPsec reports connected. The current problem instead requires a control that inspects tunnel state, negotiated parameters and gateway logs before changing routes.

This choice places a supported VPN gateway across availability zones for regional resilience. It leaves the specific need to inspect tunnel state, negotiated parameters and gateway logs before changing routes unaddressed.

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 inspect tunnel state, negotiated parameters and gateway logs before changing routes.

This choice blocks HTTP requests that match configured WAF enforcement rules. It leaves the specific need to log matching malicious patterns without blocking legitimate traffic during a controlled baseline unaddressed.

WAF false-positive exclusion tuning narrows a proven harmless match while retaining the remainder of managed protections. The current problem instead requires a control that logs matching malicious patterns without blocking legitimate traffic during a controlled baseline.

This alternative correlates WAF rule IDs, policy actions and client requests to investigate web filtering, which solves a different networking task. It does not directly log matching malicious patterns without blocking legitimate traffic during a controlled baseline.

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

Although Public Load Balancer frontend provides an Internet-routable Layer 4 frontend for approved external clients, that is not sufficient to expose a private VNet IP address for a load-balanced service rather than a public endpoint in this case.

This alternative maps a selected frontend IP and port to an individual backend VM and port, which solves a different networking task. It does not directly expose a private VNet IP address for a load-balanced service rather than a public endpoint.

Application Gateway custom health probe checks an application-specific path and expected response before including backends. The current problem instead requires a control that defines application servers, scale sets or FQDN destinations receiving proxied requests.

Application Gateway end-to-end TLS is useful when the goal is to re-encrypt or retains HTTPS between the gateway and validated backend endpoints. Here, the required behavior is to define application servers, scale sets or FQDN destinations receiving proxied requests.

Application Gateway HTTP listener is useful when the goal is to match incoming protocol, port and optional host name before routing requests. Here, the required behavior is to define application servers, scale sets or FQDN destinations receiving proxied requests.

Local network gateway configuration is useful when the goal is to record on-premises VPN endpoint addresses and remote prefixes for an Azure S2S connection. Here, the required behavior is to provision the Azure-managed VPN gateway attached to the target VNet.

Zone-redundant VPN Gateway places a supported VPN gateway across availability zones for regional resilience. The current problem instead requires a control that provisions the Azure-managed VPN gateway attached to the target VNet.

Although VPN gateway SKU throughput planning selects a supported VPN gateway tier sized for aggregate tunnels and traffic, that is not sufficient to provision the Azure-managed VPN gateway attached to the target VNet in this case.

Neither design requires each Azure client VM to have its own public IP; service endpoint routing is supported from private VNet addresses.

Private Endpoints can be reached from appropriately connected networks, including peered VNets and authorized on-premises clients using VPN or ExpressRoute.

Only a Private Endpoint creates a resource-associated private network interface; service endpoints use the existing supported PaaS service addressing.

Although Address and subnet allocation inventory tracks CIDR ownership, free space and subnet relationships before deployment, that is not sufficient to provide the reserved firewall subnet for the managed Azure Firewall deployment in this case.

Public IP Prefix for contiguous outbound allocation reserves a managed contiguous block of standard public addresses for public IP resources. The current problem instead requires a control that provides the reserved firewall subnet for the managed Azure Firewall deployment.

Although Subnet size and reserved IP planning accounts for Azure-reserved addresses and workload growth in each subnet, that is not sufficient to provide the reserved firewall subnet for the managed Azure Firewall deployment in this case.

This choice delivers the correct gateway endpoints, routes and authentication settings to client devices. It leaves the specific need to check identity, certificates and local profile logs before changing gateway routes unaddressed.

That approach validates supported OS, client version, tunnel profile and endpoint requirements; it does not replace P2S client-side authentication troubleshooting for the constraint in this scenario.

Although P2S client address pool planning allocates remote-user tunnel addresses without overlapping VNet and on-premises ranges, that is not sufficient to check identity, certificates and local profile logs before changing gateway routes in this case.

Virtual network gateway deployment is useful when the goal is to provision the Azure-managed VPN gateway attached to the target VNet. Here, the required behavior is to select a supported VPN gateway tier sized for aggregate tunnels and traffic.

This alternative places a supported VPN gateway across availability zones for regional resilience, which solves a different networking task. It does not directly select a supported VPN gateway tier sized for aggregate tunnels and traffic.

BGP route advertisement on VPN exchanges dynamic network prefixes over a supported route-based VPN configuration. The current problem instead requires a control that selects a supported VPN gateway tier sized for aggregate tunnels and traffic.