Fortinet FCSS_SASE_AD-24 FCSS - FortiSASE 24 Administrator Exam Practice Test

The unified FortiClient component of FortiSASE facilitates the always-on security measure required for ensuring that all remote user endpoints are always connected and protected.

Unified FortiClient:

FortiClient is a comprehensive endpoint security solution that integrates with FortiSASE to provide continuous protection for remote user endpoints.

It ensures that endpoints are always connected to the FortiSASE infrastructure, even when users are off the corporate network.

Always-On Security:

The unified FortiClient maintains a persistent connection to FortiSASE, enforcing security policies and protecting endpoints against threats at all times.

This ensures compliance with the cybersecurity policy requiring constant connectivity and protection for remote users.

References:

FortiOS 7.2 Administration Guide: Provides information on configuring and managing FortiClient for endpoint security.

FortiSASE 23.2 Documentation: Explains how FortiClient integrates with FortiSASE to deliver always-on security for remote endpoints.

TheFortiSASE inline-CASB (Cloud Access Security Broker)component is designed to provide real-time security and visibility by beingplaced directly in the traffic path between the endpoint and cloud applications. Inline-CASB inspects traffic as it flows to and from cloud applications, enablingenforcement of security policies, detection of threats, and prevention of unauthorized access. This approach ensures that all interactions with cloud applications are monitored and controlled in real time.

Here’s why the other options are incorrect:

A. It provides visibility for unmanaged locations and devices:While inline-CASB enhances visibility, its primary function is to inspect and secure traffic in real time. Visibility for unmanaged locations and devices is typically achieved through other components like endpoint agents or API-based CASB.

C. It uses API to connect to the cloud applications:API-based CASB is a different approach that relies on APIs provided by cloud applications to monitor and manage data. Inline-CASB operates directly in the traffic flow rather than using APIs.

D. It detects data at rest:Detecting data at rest is typically handled by Data Loss Prevention (DLP) tools or API-based CASB solutions. Inline-CASB focuses on inspecting traffic in motion, not data stored in cloud applications.

References:

Fortinet FCSS FortiSASE Documentation - Inline-CASB Overview

FortiSASE Administration Guide - Cloud Application Security

To enable theMSSP (Managed Security Service Provider)feature on FortiSASE, two key requirements must be met:

Assign role-based access control (RBAC) to IAM users using FortiCloud IAM portal (Option C):RBAC is essential for managing permissions and ensuring that different customers (tenants) have appropriate access levels. The FortiCloud Identity and Access Management (IAM) portal allows administrators to define roles and assign them to users, ensuring secure and granular control over resources.

Enable multi-tenancy on the FortiSASE portal (Option D):Multi-tenancy is a critical feature for MSSPs, as it allows them to manage multiple customer environments (tenants) from a single FortiSASE instance. Each tenant operates independently with its own configurations, policies, and reporting, while the MSSP retains centralized control.

Here’s why the other options are incorrect:

A. Add FortiCloud premium subscription on the root FortiCloud account:While FortiCloud subscriptions may enhance functionality, they are not specifically required to enable the MSSP feature.

B. Configure MSSP user accounts and permissions on the FortiSASE portal:User accounts and permissions are managed through the FortiCloud IAM portal, not directly on the FortiSASE portal.

References:

Fortinet FCSS FortiSASE Documentation - MSSP Feature Configuration

FortiSASE Administration Guide - Multi-Tenancy and RBAC Setup

Zero-trust tags are critical in implementing zero-trust network access (ZTNA) policies. Here are the two key advantages of using zero-trust tags:

Access Control (Allow or Deny):

Zero-trust tags can be used to define policies that either allow or deny access to specific network resources based on the tag associated with the user or device.

This granular control ensures that only authorized users or devices with the appropriate tags can access sensitive resources, thereby enhancing security.

Determining Security Posture:

Zero-trust tags can be utilized to assess and determine the security posture of an endpoint.

Based on the assigned tags, FortiSASE can evaluate the device's compliance with security policies, such as antivirus status, patch levels, and configuration settings.

Devices that do not meet the required security posture can be restricted from accessing the network or given limited access.

References:

FortiOS 7.2 Administration Guide: Provides detailed information on configuring and using zero-trust tags for access control and security posture assessment.

FortiSASE 23.2 Documentation: Explains how zero-trust tags are implemented and used within the FortiSASE environment for enhancing security and compliance.

When configuring FortiSASE Secure Private Access (SPA) with SD-WAN integration, establishing a routing adjacency between FortiSASE and the FortiGate SD-WAN hub requires the use of the Border Gateway Protocol (BGP).

BGP (Border Gateway Protocol):

BGP is widely used for establishing routing adjacencies between different networks, particularly in SD-WAN environments.

It provides scalability and flexibility in managing dynamic routing between FortiSASE and the FortiGate SD-WAN hub.

Routing Adjacency:

BGP enables the exchange of routing information between FortiSASE and the FortiGate SD-WAN hub.

This ensures optimal routing paths and efficient traffic management across the hybrid network.

References:

FortiOS 7.2 Administration Guide: Provides information on configuring BGP for SD-WAN integration.

FortiSASE 23.2 Documentation: Details on setting up routing adjacencies using BGP for Secure Private Access with SD-WAN.

Theagentless remote user internet accessuse case is designed to minimize individual endpoint configuration. In this scenario, FortiSASE provides secure internet access without requiring the installation of an agent on the endpoint device. This approach is particularly useful for environments with unmanaged devices or temporary users, as it eliminates the need for complex configurations on each endpoint. Instead, security policies are enforced at the network level, ensuring consistent protection without relying on endpoint-specific software.

Here’s why the other options are incorrect:

A. Site-based remote user internet access:This use case involves securing internet access for users at a specific site or location, typically through a gateway or firewall. While it simplifies configuration for all users at that site, it does not specifically minimize individual endpoint configuration for remote users.

C. SIA for SSL VPN remote users:SSL VPN requires users to connect to the corporate network via a client or browser-based interface. This approach often involves additional configuration on the endpoint, such as installing and configuring the SSL VPN client.

D. SIA using ZTNA:Zero Trust Network Access (ZTNA) focuses on verifying the identity and posture of devices before granting access to resources. While ZTNA enhances security, it may require endpoint agents or posture checks, which involve some level of endpoint configuration.

References:

Fortinet FCSS FortiSASE Documentation - Secure Internet Access (SIA) Use Cases

FortiSASE Administration Guide - Agentless Remote User Access

Zero Trust Network Access (ZTNA) private access use cases focus on providing secure and controlled access to private applications without exposing them to the public internet. The following two statements accurately describe ZTNA private access use cases:

The security posture of the device is secure (Option A):ZTNA enforces strict access controls based on the principle of least privilege. Before granting access to private applications, ZTNA evaluates the security posture of the device (e.g., whether it is patched, compliant, and free of malware). Only devices that meet the required security standards are granted access, ensuring that the device is secure before allowing private access.

All TCP-based applications are supported (Option C):ZTNA supports all TCP-based applications, enabling secure access to a wide range of private applications, including legacy systems and custom-built applications. This flexibility makes ZTNA suitable for organizations with diverse application environments.

Here’s why the other options are incorrect:

B. All FortiSASE user-based deployments are supported:While FortiSASE supports various deployment scenarios, not all user-based deployments are automatically compatible with ZTNA. Specific configurations and requirements must be met to enable ZTNA functionality.

D. Data center redundancy is offered:Data center redundancy is unrelated to ZTNA private access use cases. Redundancy typically pertains to infrastructure design and failover mechanisms, not access control methodologies like ZTNA.

References:

Fortinet FCSS FortiSASE Documentation - ZTNA Private Access Overview

FortiSASE Administration Guide - ZTNA Deployment Best Practices

Zero Trust Network Access (ZTNA) private access provides the most efficient and secure method for remote users to access a TCP-based application hosted on a private web server. ZTNA ensures that only authenticated and authorized users can access specific applications based on predefined policies, enhancing security and access control.

Zero Trust Network Access (ZTNA):

ZTNA operates on the principle of "never trust, always verify," continuously verifying user identity and device security posture before granting access.

It provides secure and granular access to specific applications, ensuring that remote users can securely access the TCP-based application hosted on the private web server.

Secure and Efficient Access:

ZTNA private access allows remote users to connect directly to the application without needing a full VPN tunnel, reducing latency and improving performance.

It ensures that only authorized users can access the application, providing robust security controls.

References:

FortiOS 7.2 Administration Guide: Provides detailed information on ZTNA and its deployment use cases.

FortiSASE 23.2 Documentation: Explains how ZTNA can be used to provide secure access to private applications for remote users.

To meet the requirement of inspecting all endpoint internet traffic on FortiSASE while excluding Google Maps traffic from the FortiSASE VPN tunnel and redirecting it to the endpoint's physical interface, you should configure split tunneling. Split tunneling allows specific traffic to bypass the VPN tunnel and be routed directly through the endpoint's local interface.

Split Tunneling Configuration:

Split tunneling enables selective traffic to be routed outside the VPN tunnel.

By configuring the Google Maps Fully Qualified Domain Name (FQDN) as a split tunneling destination, you ensure that traffic to Google Maps bypasses the VPN tunnel and uses the endpoint's local interface instead.

Implementation Steps:

Access the FortiSASE endpoint profile configuration.

Add the Google Maps FQDN to the split tunneling destinations list.

This configuration directs traffic intended for Google Maps to bypass the VPN tunnel and be routed directly through the endpoint's physical network interface.

References:

FortiOS 7.2 Administration Guide: Provides details on split tunneling configuration.

FortiSASE 23.2 Documentation: Explains how to set up and manage split tunneling for specific destinations.

FortiSASE hides user information when viewing and analyzing logs by hashing data using salt. This approach ensures that sensitive user information is obfuscated, enhancing privacy and security.

Hashing Data with Salt:

Hashing data involves converting it into a fixed-size string of characters, which is typically a hash value.

Salting adds random data to the input of the hash function, ensuring that even identical inputs produce different hash values.

This method provides enhanced security by making it more difficult to reverse-engineer the original data from the hash value.

Security and Privacy:

Using salted hashes ensures that user information remains secure and private when stored or analyzed in logs.

This technique is widely used in security systems to protect sensitive data from unauthorized access.

References:

FortiOS 7.2 Administration Guide: Provides information on log management and data protection techniques.

FortiSASE 23.2 Documentation: Details on how FortiSASE implements data hashing and salting to secure user information in logs.

To resolve internal hostnames using internal DNS servers for remotely connected endpoints, the following two components must be configured on FortiSASE:

Split DNS Rules:

Split DNS allows the configuration of specific DNS queries to be directed to internal DNS servers instead of public DNS servers.

This ensures that internal hostnames are resolved using the organization's internal DNS infrastructure, maintaining privacy and accuracy for internal network resources.

Split Tunneling Destinations:

Split tunneling allows specific traffic (such as DNS queries for internal domains) to be routed through the VPN tunnel while other traffic is sent directly to the internet.

By configuring split tunneling destinations, you can ensure that DNS queries for internal hostnames are directed through the VPN to the internal DNS servers.

References:

FortiOS 7.2 Administration Guide: Provides details on configuring split DNS and split tunneling for VPN clients.

FortiSASE 23.2 Documentation: Explains the implementation and configuration of split DNS and split tunneling for securely resolving internal hostnames.