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Google Professional-Cloud-Network-Engineer certification is a valuable credential for IT professionals who work with Google Cloud Platform. Google Cloud Certified - Professional Cloud Network Engineer certification demonstrates a high level of expertise in network design, implementation, and management on the Google Cloud Platform, which can help IT professionals advance their careers and increase their earning potential. Additionally, the certification provides access to a network of other certified professionals and resources, including training and support, that can help IT professionals stay up-to-date with the latest trends and technologies in cloud networking.

Google Professional-Cloud-Network-Engineer Certification Exam is a challenging and comprehensive assessment of a candidate's skills and knowledge in designing and implementing network solutions on the Google Cloud Platform. Achieving this certification demonstrates a candidate's expertise and ability to work with networking technologies on the cloud, making them a valuable asset for any organization looking to leverage the power of the Google Cloud Platform for their networking needs.

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Google Professional-Cloud-Network-Engineer certification is an essential certification for network engineers who want to validate their knowledge and skills in network engineering on the Google Cloud Platform. Professional-Cloud-Network-Engineer exam covers various network services and technologies and is designed to test the candidate's ability to design, implement, and manage complex network solutions. Passing Professional-Cloud-Network-Engineer Exam demonstrates that the candidate has the knowledge and skills required to design and implement network solutions on the Google Cloud Platform.

Google Cloud Certified - Professional Cloud Network Engineer Sample Questions (Q205-Q210):

NEW QUESTION # 205
You are planning to use Terraform to deploy the Google Cloud infrastructure for your company The design must meet the following requirements
* Each Google Cloud project must represent an Internal project that your team Will work on
* After an internal project is finished, the infrastructure must be deleted
* Each Internal project must have Its own Google Cloud project owner to manage the Google Cloud resources-
* You have 10-100 projects deployed at a time,
While you are writing the Terraform code, you need to ensure that the deployment IS Simple, and the code IS reusable With centralized management What should you doo

A. Create a Single pt0Ject and additional VPCs for each Internal project
B. Create a single Shared VPC and attach each Google Cloud project as a service project
C. Create a Shared VPC and service project for each Internal project
D. Create a Single Project and Single VPC for each internal project

Answer: B

Explanation:
The correct answer is C. Create a single Shared VPC and attach each Google Cloud project as a service project.
This answer is based on the following facts:
A Shared VPC allows you to share one or more VPC networks across multiple Google Cloud projects1. This simplifies the deployment and management of the network infrastructure, as you only need to create and maintain one VPC network for all your internal projects.
A Shared VPC consists of a host project that owns the VPC network and one or more service projects that use the VPC network2. You can attach and detach service projects as needed, depending on the lifecycle of your internal projects. You can also delete service projects without affecting the host project or other service projects.
A Shared VPC allows you to delegate administrative roles to different project owners3. You can grant the Shared VPC Admin role to the owner of the host project, who can manage the VPC network and its subnets. You can also grant the Service Project Admin role to the owners of the service projects, who can manage the Google Cloud resources in their own projects.
The other options are not correct because:
Option A is not suitable. Creating a single project and additional VPCs for each internal project will increase the complexity and cost of the network infrastructure. You will need to create and maintain multiple VPC networks, firewall rules, routes, and VPN tunnels. You will also have a limit on the number of VPC networks per project4.
Option B is not feasible. Creating a single project and single VPC for each internal project will not meet the requirement of having separate project owners for each internal project. You will have only one project owner who can manage all the Google Cloud resources in the same project.
Option D is not optimal. Creating a Shared VPC and service project for each internal project will not meet the requirement of having a simple and reusable code with centralized management. You will need to create and maintain multiple Shared VPCs, which will increase the complexity and cost of the network infrastructure. You will also have more Terraform code to write and manage for each Shared VPC.

NEW QUESTION # 206
Your frontend application VMs and your backend database VMs are all deployed in the same VPC but across different subnets. Global network firewall policy rules are configured to allow traffic from the frontend VMs to the backend VMs. Based on a recent compliance requirement, this traffic must now be inspected by network virtual appliances (NVAs) firewalls that are deployed in the same VPC. The NVAs are configured to be full network proxies and will source NAT-allowed traffic. You need to configure VPC routing to allow the NVAs to inspect the traffic between subnets. What should you do?

A. Create your NVA with multiple interfaces. Configure NIC0 for NVA in the backend subnet. Configure NIC1 for NVA in the frontend subnet. Place your NVAs behind an internal passthrough Network Load Balancer named ilb1. Add global network firewall policy rules to allow traffic through your NVAs.
Create a custom static route with the destination IP range of the backend VM subnet, frontend instance tag, and the next hop of ilb1. Add a frontend network tag to your frontend VMs.
B. Place your NVAs behind an internal passthrough Network Load Balancer named ilb1. Add global network firewall policy rules to allow traffic through your NVAs. Create a policy-based route (PBR) with the source IP range of the frontend VM subnet, destination IP range of the backend VM subnet, and the next hop of ilb1. Scope the PBR to the VMs with the frontend network tag. Add a frontend network tag to your frontend servers.
C. Place your NVAs behind an internal passthrough Network Load Balancer named ilb1. Add the global network firewall policy rules to allow traffic through your NVAs. Create a policy-based route (PBR) with the source IP range of the backend VM subnet, destination IP range of the frontend VM subnet, and the next hop of ilb1. Scope the PBR to the VMs with the backend network tag. Add a backend network tag to your backend servers.
D. Place your NVAs behind an internal passthrough Network Load Balancer named ilb1. Add global network firewall policy rules to allow traffic through your NVAs. Create a custom static route with the destination IP range of the backend VM subnet, frontend instance tag, and the next hop of ilb1. Add a frontend network tag to your frontend VMs.

Answer: B

Explanation:
Explanation: The correct solution requires creating a policy-based route (PBR) to force the traffic from the frontend subnet to the backend subnet through the NVA. The PBR should be scoped to the frontend VMs, with the next hop being the passthrough load balancer (ilb1) behind which the NVAs reside. This ensures that all traffic is inspected by the NVA before reaching the backend.

NEW QUESTION # 207
Your organization recently created a sandbox environment for a new cloud deployment. To have parity with the production environment, a pair of Compute Engine instances with multiple network interfaces (NICs) were deployed. These Compute Engine instances have a NIC in the Untrusted VPC (10.0.0.0/23) and a NIC in the Trusted VPC (10.128.0.0/9). A HA VPN tunnel has been established to the on-premises environment from the Untrusted VPC. Through this pair of VPN tunnels, the on-premises environment receives the route advertisements for the Untrusted and Trusted VPCs. In return, the on-premises environment advertises a number of CIDR ranges to the Untrusted VPC. However, when you tried to access one of the test services from the on-premises environment to the Trusted VPC, you received no response. You need to configure a highly available solution to enable the on-premises users to connect to the services in the Trusted VPC. What should you do?

A. Add both multi-NIC VMs to a new unmanaged instance group, named nva-uig.
Create an internal passthrough Network Load Balancer in the Untrusted VPC, named ilb-untrusted, with the nva-uig unmanaged instance group designated as the backend.
Create a custom static route in the Untrusted VPC for destination 10.123.0.0/9 and the next hop ilb- untrusted.
Create an internal passthrough Network Load Balancer in the Trusted VPC, named ilb-trusted, with the nva-uig unmanaged instance group designated as the backend.
Create a custom static route in the Trusted VPC for destination 0.0.0.0/0 and the next hop ilb-trusted.
B. Add both multi-NIC VMs to a new unmanaged instance group, named nva-uig.
Create two custom static routes in the Untrusted VPC for destination 10.128.0.0/9 and set each of the VMs' NIC as the next hop.
Create two custom static routes in the Trusted VPC for destination 10.0.0.0/23 and set each of the VMs' NIC as the next hop.
C. Add both multi-NIC VMs to a new unmanaged instance group, named nva-uigO.
Create an internal passthrough Network Load Balancer in the Untrusted VPC, named ilb-untrusted, with the nva-uigO as backend.
Create a custom static route in the Untrusted VPC for destination 10.128.0.0/9 and the next hop ilb- untrusted.
Add both multi-NIC VMs to a new unmanaged instance group, named nva-uigl.
Create an internal passthrough Network Load Balancer in the Trusted VPC, named ilb-trusted, with the nva-uigl as backend.
Create a custom static route in the Trusted VPC for destination 0.0.0.0/0 and the next hop ilb-trusted.
D. Add both multi-NIC VMs to a new unmanaged instance group, named nva-uig.
Create an internal passthrough Network Load Balancer in the Untrusted VPC, named ilb-untrusted, with the nva-uig unmanaged instance group designated as the backend.
Create a custom static route in the Untrusted VPC for destination 10.128.0.0/9 and the next hop ilb- untrusted.
Create an internal passthrough Network Load Balancer in the Trusted VPC, named ilb-trusted, with the nva-uig unmanaged instance group designated as the backend.
Create a custom static route in the Trusted VPC for destination 10.0.0.0/23 and the next hop ilb-trusted.

Answer: D

Explanation:
Explanation: The solution requires creating internal passthrough load balancers for both VPCs, with custom static routes pointing to each load balancer. This ensures connectivity between the on-premises environment and the Trusted VPC via the Untrusted VPC.

NEW QUESTION # 208
You have recently taken over responsibility for your organization's Google Cloud network security configurations. You want to review your Cloud Next Generation Firewall (Cloud NGFW) configurations to ensure that there are no rules allowing ingress traffic to your VMs and services from the internet. You want to avoid manual work. What should you do?

A. Review Network Analyzer insights on the VPC network category.
B. Run Connectivity Tests from multiple external sources to confirm that traffic is not allowed to ingress to your most critical services in Google Cloud.
C. Export all your Cloud NGFW rules into a CSV file and search for 0.0.0.0/0.
D. Use Firewall Insights, and enable insights for overly permissive rules.

Answer: D

Explanation:
Explanation: Using Firewall Insights and enabling insights for overly permissive rules helps automate the process of identifying firewall rules that may allow unintended ingress from the internet. This is a quick and efficient method compared to manually searching through firewall configurations.

NEW QUESTION # 209
You need to establish network connectivity between three Virtual Private Cloud networks, Sales, Marketing, and Finance, so that users can access resources in all three VPCs. You configure VPC peering between the Sales VPC and the Finance VPC. You also configure VPC peering between the Marketing VPC and the Finance VPC. After you complete the configuration, some users cannot connect to resources in the Sales VPC and the Marketing VPC. You want to resolve the problem.
What should you do?

A. Alter the routing table to resolve the asymmetric route.
B. Create network tags to allow connectivity between all three VPCs.
C. Delete the legacy network and recreate it to allow transitive peering.
D. Configure VPC peering in a full mesh.

Answer: D

Explanation:
https://cloud.google.com/vpc/docs/using-vpc-peering

NEW QUESTION # 210
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