Free Practice Questions for Cisco 300-740 Exam

When integrating Cisco ISE with Azure AD using SAML SSO:

B: The Azure AD metadata must be uploaded into ISE to establish trust and allow token validation.

D: External Identity Sources settings must be configured in ISE to recognize and process authentication requests via SAML-based identity providers like Azure AD.

These are mandatory steps for enabling browser-based SSO authentication in ISE as explained in SCAZT Section 2 (User and Device Security, Pages 42–44), which describes federated identity integration.

Note: Option A is already completed as stated in the prompt. Options C and E are not essential to the authentication flow in this SAML context.

The exhibit shows DNS Block as the reason and lists 10.1.108.100 as the Responder IP, with the Initiator being 10.1.113.7. In Cisco Secure Firewall Management Center reports, the “Initiator IP” is the source of the request and the “Responder IP” is the source of the response. Since the DNS security intelligence engine flagged the traffic, and 10.1.108.100 was the responder, the blocked traffic corresponds to a DNS response from that IP.

A drive-by compromise occurs when malicious code is automatically downloaded and executed simply by visiting a compromised website—often through malicious advertising scripts (malvertising). According to SCAZT Section 4: Application and Data Security (Pages 85–87), ad blockers help prevent drive-by downloads by blocking these third-party ad scripts and redirections, which are commonly used in such attacks.

VPNs and private browsing modes (e.g., Incognito) do not provide protection against malicious content hosted on web pages.

The flow data in the exhibit shows multiple short-duration, high-volume HTTPS connections (443/TCP) from IP 10.10.10.10 to multiple destination IPs in the 50.10.10.0/24 network. All flows are 22 seconds long and transfer exactly 1.77M of data. This uniform behavior to a large set of IP addresses strongly indicates a Denial of Service (DoS) pattern, where an internal host (10.10.10.10) is overwhelming external systems in the 50.10.10.0/24 range.

The SCAZT guide (Section 6: Threat Response, Pages 114–117) explains how Secure Cloud Analytics uses NetFlow and behavioral modeling to identify such volumetric threats. Key identifiers include:

Same connection size (1.77M)

Multiple unique peer IPs in a single external subnet

Same destination port and protocol (HTTPS)

Zero TCP connections completed, indicating unacknowledged connections

This matches the behavioral pattern of a DoS originating from an internal host.

Rule 3 allows all traffic (including SSH) from 10.1.0.0/30 during the hours of 18:00–08:00, which directly conflicts with Rule 1 that is intended to deny SSH at those same hours. Since firewall rules are evaluated top-down and Rule 3 allows traffic during the exact period where SSH should be blocked, deleting Rule 3 will allow Rule 1 to apply correctly.

This behavior is explained in SCAZT Section 3 (Network and Cloud Security, Pages 72–75), where rule precedence and time-based evaluation logic are discussed.

According to the MITRE ATT&CK framework and the SCAZT documentation, one of the most effective mitigation techniques against exploitation is to keep systems updated with the latest patches. Exploitation typically targets known vulnerabilities in operating systems and applications. Timely patching significantly reduces the risk of successful exploitation, especially zero-day vulnerabilities once disclosed.

The provided JSON-like policy structure shows a segmentation rule with action "BLOCK" and filters referencing the HTTPS Consumer and HTTPS Provider. However, to block HTTP, you must define the protocol explicitly in the parameters. The attribute “l4_params” is currently empty. According to Cisco Secure Workload best practices (SCAZT Section 4: Application and Data Security, Pages 88–91), Layer 4 parameters (l4_params) must be used to specify protocols such as HTTP or port 80. Without defining HTTP here, the policy does not apply to HTTP traffic.

The anyconnect keep-installer none command is used to remove the Cisco Secure Client (formerly AnyConnect) from an endpoint once the VPN session ends. This is useful in temporary or kiosk-based access environments. The default behavior retains the client.

This capability is covered in SCAZT Section 2: User and Device Security (Pages 40–44), which outlines VPN session lifecycle management and Secure Client policies.