Microsoft AZ-104 vs Microsoft AZ-700: Admin vs Networking

The current Microsoft AZ-104 exam and AZ-700 Azure Network Engineer exam overlap around networking, but they validate different jobs. AZ-104 is broad administration: identity and governance, storage, compute, virtual networking, and monitoring. AZ-700 is specialized network engineering: core network infrastructure, hybrid connectivity, application delivery, private access to Azure services, and network security. Microsoft refreshed the English AZ-700 skills on July 27, 2026, so older comparisons that treat it as a narrow VNet exam are incomplete.

The practical distinction is ownership. An Azure administrator must be able to configure and troubleshoot networking because workloads depend on it, but the administrator also owns storage, compute, access, governance, and monitoring. A network engineer goes deeper into topology, routing, private connectivity, load balancing, DNS, hybrid links, resiliency, scale, and network security across the environment.

Choose between the exams by asking which decisions you are expected to make at work. If network tickets are one part of a broader Azure operations role, AZ-104 is usually the better match. If network design and connectivity failures are the work itself, AZ-700 is the more direct measurement.

AZ-104 measures a broad operating surface

AZ-104 candidates administer the environment rather than one technical layer. You need to manage Microsoft Entra identities and governance, storage, compute, virtual networks, and monitoring. That breadth changes preparation: a networking weakness matters, but so does a storage access problem, a VM availability issue, or an RBAC assignment that blocks administration.

Hands-on work should therefore include creating and managing resources, reading effective state, and troubleshooting from evidence. The exam rewards the administrator who can move between layers without assuming every symptom is a network problem.

Use the current post-AZ-104 role options only after you have a stable administration foundation. Networking specialization is one possible next step, not an automatic requirement for every administrator.

A useful administrator-versus-network-engineer exercise is to start with the same outage. The administrator checks workload state, NSGs, routes, DNS, and monitoring because any of those may explain the symptom. The network engineer then goes deeper into path asymmetry, gateway health, peering or Virtual WAN propagation, private endpoint resolution, and whether the topology itself created the failure domain.

AZ-700 goes deeper into network behavior

AZ-700 expects subject-matter expertise in Azure networking. The current role includes optimizing performance, resiliency, scale, and security, proactively monitoring networks, and resolving connectivity problems. The internal AZ-700 networking treatment is useful because the exam makes more sense when you follow traffic rather than memorize service names.

You should be comfortable with virtual networks, subnets, routing, peering, DNS, private endpoints, Virtual WAN, load balancing, Front Door, Application Gateway, VPN, ExpressRoute, firewalls, and network monitoring. The point is not to list features but to predict the path and explain why it succeeds or fails.

Specialization also means evaluating trade-offs. A topology that centralizes inspection may simplify policy but create a shared dependency. Private endpoints improve isolation but increase DNS and lifecycle complexity. Network engineering is full of choices that are technically valid but operationally different.

AZ-700 also rewards understanding of service boundaries. Application Gateway, Front Door, Load Balancer, Traffic Manager, private endpoints, and Virtual WAN do not solve the same problem. Classify each by layer, scope, health model, routing behavior, and security capability. This prevents exam questions from becoming a contest of remembering which product name sounds most network-related.

The overlap is larger than the exam titles suggest

Both exams require solid cloud networking fundamentals: addressing, segmentation, routing, name resolution, security controls, gateways, private access, and hybrid connectivity. An AZ-104 administrator who cannot trace a route or DNS answer will struggle with routine incidents.

Likewise, an AZ-700 engineer needs enough general Azure knowledge to understand the workloads the network carries. Compute placement, managed services, identity, subscriptions, and monitoring all influence how a network is designed and operated.

The difference is depth and decision scope. AZ-104 asks networking as one administration domain; AZ-700 asks you to design and operate the networking system itself.

The overlap is useful for career planning. A strong Azure administrator can often grow into network engineering by deepening routing, DNS, hybrid connectivity, and application delivery without abandoning general platform knowledge. Conversely, a specialist network engineer benefits from AZ-104-level familiarity because identity, resource hierarchy, monitoring, and compute state frequently determine whether the network change is actually safe.

DNS is a dividing line between shallow and deep networking

Review DNS, DHCP, and NAT fundamentals and then translate those concepts into Azure Private DNS, custom DNS, resolver paths, conditional forwarding, and hybrid name resolution. Many real Azure incidents look like routing failures while the actual problem is an incorrect name answer or missing private-zone association.

AZ-104 needs enough DNS knowledge to administer services and resolve common problems. AZ-700 expects a more architectural view: how name resolution behaves across hubs, spokes, on-premises networks, private endpoints, and multiple regions.

Testing DNS should be part of every networking lab. Record which resolver was queried, which answer was returned, whether that answer matches the intended path, and how the result changes during failover.

Name resolution labs should include private endpoints because they expose several Azure concepts at once. Create a service with a private endpoint, observe public versus private DNS answers, change a zone link, and then test from another network. This makes it obvious why a correct route can still lead to an unreachable service when DNS returns the wrong address.

Hybrid connectivity is where AZ-700 becomes more specialized

Administrators may configure VPN connections or support hybrid workloads, but AZ-700 goes deeper into hybrid architecture, route propagation, ExpressRoute, VPN design, redundancy, BGP, and the operational behavior of multiple connection paths. A redundant circuit is not a complete availability strategy. Routing convergence, DNS, firewalls, application sessions, and asymmetric paths can still break recovery. Network engineers need to test failover rather than infer it from topology. Use network observability and performance baselines to establish normal route, latency, and flow behavior before an outage. Good network engineering depends on measurable evidence.

Hybrid labs should document route preference before and after a simulated failure. If ExpressRoute and VPN coexist, or if multiple BGP paths exist, predict which prefix will be used and why. A network engineer should be able to explain convergence rather than simply observe that traffic eventually moved. That level of reasoning is much closer to AZ-700 than ordinary AZ-104 administration.

Security is shared, but AZ-700 sees it through traffic control

AZ-104 administrators configure RBAC, governance, NSGs, private access, and resource security as part of environment management. AZ-700 concentrates on network security controls and how they interact with routing and application delivery.

Network security includes NSGs, Azure Firewall, Web Application Firewall, DDoS controls, Virtual WAN security, private endpoints, network policies, and effective-rule analysis. The engineer must understand where each control attaches and which traffic it can actually influence.

Pair those controls with identity and least privilege. Private connectivity does not replace authorization, and an authorized identity may still fail because the route or endpoint is wrong.

Security engineering on the network also includes reducing unnecessary exposure. Ask whether a public IP is needed, whether a managed service can use private access, whether inspection belongs centrally or locally, and whether an NSG rule is broader than the application flow requires. Network security becomes easier when every permitted path has an explicit business purpose.

Monitoring depth separates administration from network engineering

AZ-104 candidates use Azure Monitor and related tools to observe resource health, logs, alerts, and application behavior. Network engineers go further into packet-path evidence, Network Watcher, flow logs, connection monitoring, gateway metrics, load-balancer health, and traffic analytics.

A useful network incident record includes the expected path, actual path, route decision, DNS result, security control, destination health, and relevant telemetry. That structure prevents the common habit of opening firewall rules until the symptom disappears. The wider observability model still applies: collect signals that answer operational questions, assign ownership, and make alerts actionable.

Monitoring should use baselines, not only alerts. Capture normal latency, throughput, packet loss, DNS response, gateway utilization, and backend health before changing the topology. When a performance incident occurs, the engineer can compare current state with a known baseline instead of guessing. AZ-700 scenarios increasingly reward this operational perspective rather than one-time design knowledge.

Choose the lab based on the role you want

For AZ-104, build an Azure environment with identities, a VM or app workload, storage, networking, governance, and monitoring. Practice the administration flow end to end. For AZ-700, take the same environment and deepen the network: hub-spoke or Virtual WAN, private endpoints, hybrid connectivity, multiple load-balancing layers, DNS, and network security.

Break each design deliberately. Remove a route, misconfigure DNS, block a security rule, degrade a backend, or change a gateway advertisement. Then diagnose from evidence before making a correction.

The best lab is not the largest. It is the one where you can explain every packet path, dependency, and failure mode without relying on trial and error.

For the specialist lab, include at least one application-delivery service and one hybrid path. A pure VNet-and-NSG lab is too narrow for the current blueprint. Add a private PaaS service, a global or regional frontend, and on-premises connectivity, then troubleshoot how DNS, routes, security, and health probes interact across those boundaries.

The right exam follows the decisions you own

Use the Azure certifications as a role map. AZ-104 is the administration foundation for people who operate Azure environments broadly. AZ-700 is for people whose responsibility is the connectivity fabric and its security, performance, and resilience.

If your role is moving toward network engineering, AZ-104 knowledge is still valuable because networks exist to support workloads. If you are moving toward architecture, networking depth can become a differentiator, but it should be paired with governance, identity, data, and continuity skills.

Do not choose AZ-700 merely because networking feels harder, or AZ-104 because it appears broader. Choose the exam whose scenarios look like the work you are expected to perform and troubleshoot.

If both exams are on your long-term plan, take them in the order that mirrors your experience. Administrators often benefit from AZ-104 first because it gives context for the resources and governance around the network. Experienced network professionals can prepare directly for AZ-700, but should still fill Azure platform gaps before assuming traditional networking knowledge covers the whole cloud role.