Fortinet NSE7_PBC-7.2 Exam Dumps

A . All the output values are available after a successful terraform apply command.This means that after the deployment, you can view the output values by running terraform output or terraform show in the same directory where you ran terraform apply1.You can also use the output values in other Terraform configurations or external systems by using the terraform output command with various options2. B. The subnet_private_1 value is defined in the variables.tf file.This means that the subnet_private_1 value is an input variable that can be customized by passing a different value when running terraform apply or by setting an environment variable3.The variables.tf file is where you declare all the input variables for your Terraform configuration4.

The other options are incorrect because:

After the deployment, Terraform output values are not visible only through AWS CloudShell. You can access them from any shell or terminal where you have Terraform installed and configured with your AWS credentials.

You do not need to specify all the AWS credentials in the output.tf file.The output.tf file is where you declare all the output values for your Terraform configuration4. You can specify your AWS credentials in a separate file, such as provider.tf, or use environment variables or shared credentials files.Reference:

Output Values - Configuration Language | Terraform - HashiCorp Developer

Command: output - Terraform by HashiCorp

Input Variables - Configuration Language | Terraform - HashiCorp Developer

Configuration Language | Terraform - HashiCorp Developer

A . The peer GRE address is the FortiGate external interface IP address.This is the IP address of the FortiGate interface that is connected to the transit gateway attachment subnet1.This IP address is used to establish the GRE tunnel between the FortiGate and the transit gateway2. B . The Transit Gateway GRE address is auto-generated.This is the IP address of the transit gateway that is used to establish the GRE tunnel with the FortiGate2.This IP address is automatically assigned by AWS from the Transit Gateway CIDR range that you specify when you create the Connect attachment3.

The other options are incorrect because:

The BGP inside CIDR blocks cannot be any CIDR block with /29.They must be a /29 CIDR block from the 169.254.0.0/16 range for IPv4, or a /125 CIDR block from the fd00::/8 range for IPv64.These are the inside IP addresses that are used for BGP peering over the GRE tunnel4.

The Peer GRE address is not the FortiGate internal interface IP address.The internal interface IP address is used to route traffic from the FortiGate to the VPC subnet where the third-party appliance (such as SD-WAN) is located1.The Peer GRE address is used to route traffic from the FortiGate to the transit gateway over the GRE tunnel2.

In using Red Hat Ansible for changing the configuration of a FortiGate VM, the minimum number of files you must create and the file to configure the target FortiGate IP address are:

B . Create two files and use the hosts file.

Ansible Playbook File (YAML): The playbook file, which is typically a YAML file, contains the desired states and tasks that Ansible will execute on the target hosts.

Inventory File (Hosts): The inventory file, commonly named hosts, is where you define the target machines, including the FortiGate VM's IP address. Ansible uses this file to determine on which machines to run the playbook.

By creating these two files, you will have the necessary components to configure Ansible for the deployment. The playbook contains the automation tasks, and the hosts file lists the machines where those tasks will be executed.

According to the AWS documentation for Transit Gateway, a Transit Gateway is a network transit hub that connects VPCs and on-premises networks. To route traffic from Linux instances to the TGW, you need to do the following steps:

In the TGW route table, associate two attachments. An attachment is a resource that connects a VPC or VPN to a Transit Gateway. By associating the attachments to the TGW route table, you enable the TGW to route traffic between the VPCs and the VPN.

In the main subnet routing table in VPC A and B, add a new route with destination 0_0.0.0/0, next hop TGW. This route directs all traffic from the Linux instances to the TGW, which can then forward it to the appropriate destination based on the TGW route table.

The other options are incorrect because:

In the TGW route table, adding route propagation to 192.168.0 0/16 is not necessary, as this is already the default route for the TGW. Route propagation allows you to automatically propagate routes from your VPC or VPN to your TGW route table.

In the main subnet routing table in VPC A and B, adding a new route with destination 0_0.0.0/0, next hop Internet gateway (IGW) is not correct, as this would bypass the TGW and send all traffic directly to the internet. An IGW is a VPC component that enables communication between instances in your VPC and the internet.

: [Transit Gateways - Amazon Virtual Private Cloud]

The error message indicates that the Connect attachment is already associated with another transit gateway route table. You cannot associate the same attachment with more than one route table. However, you can propagate the same attachment to multiple route tables. Therefore, to fulfill your requirement of configuring a second route table for east-west traffic inspection between two VPCs, you need to create a propagation with the Connect attachment in the second route table.This will allow the second route table to learn the routes from the Connect attachment and forward the traffic to the security VPC1.You also need to associate the second route table with the Transport attachment, which is the transit gateway attachment for the security VPC1.

Transit gateway route tables - Amazon VPC | AWS Documentation

Getting started with transit gateways - Amazon VPC | AWS Documentation

Configuring TGW route tables | FortiGate Public Cloud 7.4.0 | Fortinet Document Library