Fortinet NSE7_ZTA-7.2 Exam Dumps

Certificate-based authentication is a method of verifying the identity of a device or user by using a digital certificate issued by a trusted authority. For ZTNA deployment, certificate-based authentication is used to ensure that only authorized devices and users can access the protected applications or resources.

B) The default action for empty certificates is block. This is true because ZTNA requires both device and user verification before granting access. If a device does not have a valid certificate issued by the ZTNA CA, it will be blocked by the ZTNA gateway. This prevents unauthorized or compromised devices from accessing the network.

D) Client certificate configuration is a mandatory component for ZTNA. This is true because ZTNA relies on client certificates to identify and authenticate devices. Client certificates are generated by the ZTNA CA and contain the device ID, ZTNA tags, and other information. Client certificates are distributed to devices by the ZTNA management server (such as EMS) and are used to establish a secure connection with the ZTNA gateway.

A) FortiGate signs the client certificate submitted by FortiClient. This is false because FortiGate does not sign the client certificates. The client certificates are signed by the ZTNA CA, which is a separate entity from FortiGate. FortiGate only verifies the client certificates and performs certificate actions based on the ZTNA tags.

C) Certificate actions can be configured only on the FortiGate CLI. This is false because certificate actions can be configured on both the FortiGate GUI and CLI. Certificate actions are the actions that FortiGate takes based on the ZTNA tags in the client certificates. For example, FortiGate can allow, block, or redirect traffic based on the ZTNA tags.

1: Technical Tip: ZTNA for Corporate hosts with SAML authentication and FortiAuthenticator as IDP

2: Zero Trust Network Access - Fortinet

In a ZTNA (Zero Trust Network Access) deployment, FortiClient EMS:

A) Uses endpoint information to grant or deny access to the network: FortiClient EMS plays a critical role in ZTNA by using information about the endpoint, such as its security posture and compliance status, to determine whether to grant or deny network access.

The other options do not accurately represent the role of FortiClient EMS in ZTNA:

B) Provides network and user identity authentication services: While it contributes to the overall ZTNA strategy, FortiClient EMS itself does not directly provide authentication services.

C) Generates and installs client certificates on managed endpoints: Certificate management is typically handled by other components in the ZTNA framework.

D) Acts as ZTNA access proxy for managed endpoints: FortiClient EMS does not function as an access proxy; its role is more aligned with endpoint management and policy enforcement.

FortiClient EMS in Zero Trust Network Access Deployment.

Role of FortiClient EMS in ZTNA.

To create a separate web filtering profile for off-fabric and on-fabric clients and push it to managed FortiClient devices in FortiClient EMS, the feature can be enabled in:

A) Endpoint Policy: This is where administrators can define and manage different policies for FortiClient endpoints. These policies can include settings for web filtering, which can be customized for on-fabric and off-fabric scenarios.

The other options do not directly relate to the creation and management of web filtering profiles:

B) ZTNA Connection Rules: These rules are more focused on access control and do not deal directly with web filtering profiles.

C) System Settings: This section typically includes overall system configurations rather than specific policy definitions.

D) On-fabric Rule Sets: While important for on-fabric configurations, they don't directly deal with web filtering profiles.

FortiClient EMS Administration Guide.

Managing Endpoint Policies in FortiClient EMS.

To prevent direct host-to-host communication at layer 2 and use only FortiGate to inspect all the VLAN traffic, an administrator must configure:

B) Block intra-VLAN traffic in the VLAN interface settings: This setting prevents direct communication between hosts within the same VLAN, forcing traffic to be routed through FortiGate for inspection.

D) Configure static routes to allow subnets: By setting up static routes, the administrator ensures that traffic between different subnets is correctly routed through the FortiGate for inspection and policy enforcement.

E) Configure a firewall policy to allow the desired traffic between hosts: Firewall policies on the FortiGate will dictate what traffic is permitted between hosts, ensuring that only authorized traffic is allowed.

The other options are not typically required for this setup:

A) Configure proxy ARP to allow traffic: Proxy ARP is not necessary for this scenario as it involves answering ARP requests on behalf of another host, which is not relevant to blocking intra-VLAN traffic.

C) Add the VLAN interface to a software switch: This would create a switch-like environment on the FortiGate, which is counterproductive to the goal of preventing direct host-to-host communication at layer 2.

FortiGate VLAN Configuration Guide.

Blocking Intra-VLAN Communication in FortiGate.

A persistent agent is an application that works on Windows, macOS, or Linux hosts to identify them to FortiNAC Manager and scan them for compliance with an endpoint compliance policy. A persistent agent can support advanced custom scans and software inventory, apply supplicant configuration to a host, and be used for automatic registration and authentication.Reference:=

Persistent Agent

Persistent Agent on Windows

Using the Persistent Agent