SC-300 Exam Dumps - Microsoft Certified: Identity and Access Administrator Associate Questions and Answers

In the SC-300 coverage of Azure AD Connect and Identity Governance, Microsoft explains that to surface a custom on-premises attribute in Azure AD you must enable Directory extensions in Azure AD Connect. The guide states that “Directory extensions lets you synchronize additional attributes from on-premises Active Directory to Azure AD so they are available in the cloud directory for apps and policy.” This is the supported way to bring a custom attribute (here, LWLicenses ) from the litware.com forest into Azure AD so it can be referenced by cloud features such as dynamic group rules. Domain filtering or optional features do not expose a new attribute to Azure AD; directory extensions does.

For license automation, the SC-300 materials on group-based licensing and dynamic groups emphasize that “licenses can be assigned to Azure AD groups; group members then inherit the licenses, and when membership changes, licenses are added or removed automatically.” They further note that “dynamic user groups evaluate rules against user attributes to add or remove users without manual effort,” and that “nested groups are not supported for license inheritance—only direct members receive licenses.” Using the synced LWLicenses attribute in a Dynamic User group rule (for example, user.extensionAttribute… -eq " E5 " ) ensures users are automatically added to the correct group and therefore receive the specified licenses without administrative intervention, fully meeting Litware’s requirement to “manage the assignment of Azure AD licenses by modifying the value of the LWLicenses attribute.”

In SC-300, Azure AD Identity Protection is the prescribed control to “automatically detect and remediate externally leaked credentials.” That specific user risk—Leaked credentials—relies on Microsoft comparing known breached username/password pairs with what Azure AD can evaluate. The study materials explain that Identity Protection “detects leaked credentials when Microsoft finds a match with the user’s current credentials,” and also note that password hash synchronization (PHS) can be enabled even if your sign-in method is Pass-through Authentication or federation. A common exam call-out is that without PHS, Azure AD has no hash to compare, so the leaked-credential signal is unavailable. Enabling PHS (you can keep PTA as the active sign-in method) allows Identity Protection to raise user risk and enforce policy actions such as require password change or block access. By contrast, Azure AD Password Protection addresses banned/weak passwords at change time, not breached-credential telemetry; federation choices (e.g., PingFederate) don’t deliver the leaked-credential signal; and authentication method policy controls how users perform MFA (e.g., methods) rather than whether leaked credentials are detected. Therefore, to meet the requirement to “automatically detect and remediate externally leaked credentials,” the minimum correct step is to enable password hash synchronization while retaining PTA—exactly as recommended in SC-300 guidance.

Server1

On DC1

Azure AD Password Protection has two components: the DC agent (installed on domain controllers) and the proxy service (installed on one or more member servers). The SC-300 materials and Microsoft Identity Governance guidance explain that the proxy service is required when domain controllers do not have direct internet access. The proxy retrieves the password protection policy and custom banned password list from Azure AD over outbound HTTPS and makes it available to DC agents. The documentation further states that you should deploy at least one proxy per forest and two for high availability, and that domain controllers do not need internet connectivity when a proxy is deployed. In this scenario, DCs are explicitly blocked from internet access, so the proxy must be placed on member servers. Both SERVER1 (Application Proxy connector) and SERVER2 (Azure AD Connect) are domain-joined member servers with internet connectivity and are appropriate locations for the AzureADPasswordProtectionProxy service; selecting both provides the recommended redundancy. The custom banned password list is configured in Azure AD at the tenant level (as part of Azure AD Password Protection settings), not on individual servers. Once configured, the policy and list are downloaded by the proxy and enforced by the DC agent during password set or change operations, satisfying the requirement to implement a banned password list for the litware.com forest.

According to the Microsoft SC-300: Identity and Access Administrator Study Guide and the Microsoft Learn module “Publish on-premises apps for remote access using Azure AD Application Proxy”, Azure AD Application Proxy enables secure remote access to internal, on-premises web applications without requiring VPN access.

In the scenario, App1 is an on-premises application hosted within the Litware network, and the technical requirements specify that it must be securely accessible to both internal and external users — including Fabrikam guest accounts — through Azure AD authentication.

Microsoft’s official documentation states:

“Azure AD Application Proxy provides secure remote access to on-premises web applications, integrating with Azure AD for single sign-on (SSO) and conditional access policies.”

Given that the environment already includes a server (SERVER1) running the Azure AD Application Proxy connector, and that Litware wants to enforce Azure AD Conditional Access and MFA for App1, Azure AD Application Proxy is the correct implementation.

The other options are not suitable:

A. Policy set in Microsoft Endpoint Manager: Used for device compliance and app management, not for publishing on-premises apps.

B. App configuration policy in Endpoint Manager: Used for mobile app configuration (e.g., MAM policies), not for access publishing.

C. App registration in Azure AD: Used for modern cloud or SaaS apps integration, but App1 is on-premises and needs proxy access.

Correct Answer: D. Azure AD Application Proxy

To meet auditing and monitoring requirements, Azure AD must send sign-in logs and audit logs to an external location such as a Log Analytics workspace, Azure Storage account, or Event Hub. This is configured using Diagnostics settings in Azure AD.

According to Microsoft documentation in “Monitor Azure Active Directory activity logs in Azure Monitor” and the SC-300 learning objective “Implement and monitor identity governance” , you must enable diagnostic settings to stream directory logs to a Log Analytics workspace.

The scenario specifies:

“You create a Log Analytics workspace. You need to implement the technical requirements for auditing.”

By configuring Azure AD’s Diagnostics settings, you can:

Send Sign-in logs, Audit logs, and Provisioning logs to Log Analytics.

Correlate identity events with security insights in Azure Sentinel or Microsoft Defender for Cloud Apps.

Microsoft documentation confirms:

“To collect and analyze Azure AD sign-in and audit data, configure diagnostic settings to send logs to Log Analytics.”

Other options do not meet the requirement:

A. Company branding: Only affects login pages, not logging or auditing.

C. External Identities: Controls guest access, not logging.

D. App registrations: Used for app integration, not auditing.

In Azure AD, license automation is implemented through group-based licensing . The SC-300 materials explain that “you can assign licenses to a group in Azure Active Directory; when you assign a license to a group, all users who are members of the group are assigned that license” . They also clarify that “dynamic group membership uses rules to automatically add or remove users based on user attributes” , which is the recommended way to on-board new populations without manual effort. For licensing, the guide is explicit that “group-based licensing works with security groups and Microsoft 365 Groups” and that “distribution lists are not supported for license assignment” . Administrative Units are described as “a scoping mechanism for delegating administrative permissions to subsets of users and devices” , not a licensing entity. Likewise, Organizational Units (OUs) are on-premises AD containers and “do not control license assignment in Azure AD” .

Given the requirement to allocate licenses automatically to new A. Datum users as they appear, the least-effort, policy-driven approach is to create an Azure AD Dynamic User security group with a membership rule that targets those users (for example, by domain, company attribute, or a synced attribute), then assign the required Microsoft 365/Azure AD licenses to that group. As the documentation notes, “when users join or leave the group based on the rule, licenses are added or removed automatically.”

In Azure AD Privileged Identity Management (PIM) for Azure AD roles, the exam materials describe that you tailor how a role (for example, User administrator) is used by editing its Role settings. These settings control activation behavior, including require multi-factor authentication, justification, approval, assignment/activation durations, and notifications . The guide states that administrators can “configure activation requirements and time-bound eligibility on a per-role basis” and “enforce approval workflows and MFA at activation.” Access reviews are used to periodically verify who still needs a role , but they do not implement the operational changes to how the role is activated. Active assignments simply shows and changes who currently holds active/eligible assignments; it does not set policy for the role’s activation behavior. Administrative units scope certain directory tasks, but they are not how you change PIM activation/approval/MFA requirements. Therefore, to meet planned changes for the User administrator role (such as least privilege activation with approval, justification, and MFA), you update PIM → Azure AD roles → User administrator → Role settings. This aligns with the SC-300 objective to “configure PIM settings and policies for Azure AD roles,” ensuring governance by policy rather than ad-hoc assignment.

 The users must first: Register for multi-factor authentication (MFA)

 You must configure: A user risk policy

According to Microsoft SC-300 official learning materials and Exam Ref SC-300: Microsoft Identity and Access Administrator , when the requirement is to address the probability that user identities were compromised, the appropriate feature is Azure AD Identity Protection. Identity Protection detects risky sign-ins and risky users through continuous analysis of login behavior, location, device, and credential exposure signals.

Two types of policies can be created:

Sign-in risk policy – Triggers actions based on suspicious sign-in behavior (for example, unfamiliar location).

User risk policy – Triggers actions when the user’s overall identity is deemed at risk (for example, compromised credentials).

The documentation specifies:

“When user risk is detected, the policy can require the user to change their password to remediate the risk. Users must first be registered for MFA to perform secure password change operations.”

Therefore, before the user risk policy can be enforced, users must be enrolled in multi-factor authentication (MFA). MFA is used during the remediation step (password change) to verify the user’s identity securely.

Thus, to meet the requirement for “the probability that user identities were compromised,” you configure a user risk policy in Azure AD Identity Protection, and ensure that users first register for MFA so that they can complete password change or verification flows when risks are detected.

According to the Microsoft Identity and Access Administrator (SC-300) official study guide and Microsoft Learn module “Implement and manage user risk policies”, the scenario where “users must be forced to change their password if there is a probability that their identity was compromised” directly maps to the Azure AD Identity Protection “User risk policy.”

In Azure AD Identity Protection, user risk represents the likelihood that an account’s credentials have been compromised. When Azure AD detects a high user risk (for example, leaked credentials, atypical sign-in behavior, or sign-ins from unfamiliar locations), the User Risk Policy can be configured to automatically block access or require the user to reset their password upon the next sign-in.

Before a user can reset their password or complete remediation, they must have a registered authentication method (for password reset and MFA). Therefore, users must first register for multi-factor authentication (MFA) — this registration enables the authentication methods (like phone number or authenticator app) that are also used during password reset verification.

The SC-300 documentation specifically highlights:

“To enforce a password change when a user’s identity risk is high, the user must be registered for MFA, and a user risk policy must be configured to require password change.”

Thus, the correct configuration is:

Users must first register for MFA — to ensure they have verified methods available.

Configure a user risk policy — to automatically trigger password reset upon detection of compromised credentials.

Correct Answers:

Users must first: Register for multi-factor authentication (MFA).

You must configure: A user risk policy.

According to the Microsoft SC-300: Identity and Access Administrator official study guide and the Microsoft Learn module “Manage user and group licenses in Microsoft Entra ID (Azure AD)”, when you need to automatically assign licenses to users based on specific attributes (such as department, location, or a custom attribute like LWLicenses ), you should use a Dynamic User Security Group in Azure Active Directory (Entra ID).

In the scenario, Litware wants to:

“Manage the assignment of Azure AD licenses by modifying the value of the LWLicenses attribute. Users who have the appropriate value for LWLicenses must be added automatically to the Microsoft 365 group that has the appropriate license assigned.”

This requirement directly maps to a Dynamic User security group, which supports dynamic membership rules that automatically include users when their attributes meet defined conditions (for example, user.extensionAttribute15 -eq " E5 " ). When a license is assigned to this dynamic group, Azure AD automatically provisions or removes licenses for members based on their attribute values — eliminating manual license management.

Per Microsoft documentation:

“You can assign licenses to a group that has dynamic membership. When a user’s attributes change, Azure AD automatically adds or removes them from the group, which updates their license assignments accordingly.”

Now, analyzing the other options:

B. An OU (Organizational Unit): Used in on-premises Active Directory, not Azure AD. It cannot manage cloud-based license assignments.

C. A Distribution Group: Used for email distribution in Exchange Online; cannot be used for license assignment.

D. An Administrative Unit: Used for scoping administrative permissions, not for license assignment.

Therefore, the only object type that satisfies both the technical and automation requirements is a Dynamic User Security Group.

✅ Correct Answer: A. A Dynamic User security group