Free VMware 2V0-17.25 Practice Test Questions 2026

D.   Cluster API

Explanation:

VMware vSphere Kubernetes Service (VKS) uses the open-source Cluster API (CAPI) project to automate lifecycle management of Kubernetes clusters . This is explicitly stated in the official VCF 9.0 documentation: "VKS provides self-service lifecycle management of VKS clusters. VKS is an implementation of the open-source Cluster API project that defines a set of custom resources and controllers to manage the lifecycle of Kubernetes clusters" .

Why Other Options Are Incorrect

A. Kubeadm
Kubeadm is a bootstrap tool for minimal Kubernetes cluster setup, not an automated lifecycle management framework. It handles initial cluster creation but lacks the declarative, ongoing management capabilities of Cluster API .

B. Contour
Contour is an ingress controller for Kubernetes that manages external access to services. It has no role in cluster provisioning or lifecycle management .

C. Grafana
Grafana is a data visualization and observability tool for metrics dashboards. It does not provision or manage Kubernetes clusters .

References

Broadcom TechDocs: "VKS Architecture" – Confirms Cluster API provides declarative APIs for cluster creation, configuration, and management

Broadcom TechDocs: "What Is a VKS Cluster?" – States VKS is an implementation of the open-source Cluster API project

A.   Create a new IaaS Resource Policy for the production project using the Disallow VM resource template.

D.   Create a new IaaS Resource Policy for the development project using the Enforce single-control-node Kubernetes cluster template.

F.   Create a new IaaS Resource Policy for the organization using the Enforce multi-controlnode Kubernetes cluster template.

Explanation:

1. Enforce multi-control-node at the Organization level (F):
The requirement states that by default, all Kubernetes clusters must tolerate a single control plane node failure. In VCF/Supervisor architecture, high availability for the control plane requires three nodes. By applying the "Enforce multi-control-node" policy at the Organization level, you establish a global default. All projects (Development and Production) will inherit this setting unless a more specific policy is applied at the project level.

2. Disallow VM resources in Production (A):
The task specifies that only Kubernetes cluster resources will be deployed within the production project. To prevent users from deploying standard Virtual Machines (VMs) and ensure the project is dedicated to Tanzu/Kubernetes workloads, the administrator applies the "Disallow VM resource" template specifically to the Production project. This overrides any general permissions and restricts the resource types allowed.

3. Enforce single-control-node in Development (D):
In the Development project, resources must be minimized. While the global (Org) policy requires three control plane nodes, applying a project-specific policy to "Enforce single-control-node" overrides the default. This allows development clusters to run with only one control plane node, significantly reducing the resource footprint (CPU/RAM/Storage) for non-critical testing.

Why the other options are incorrect:

B. Enforce multi-control-node for Development:
This contradicts the requirement to "minimize resources." Multiple nodes increase resource consumption.

C. Disallow VM resource for the Organization:
If applied at the Org level, users wouldn't be able to deploy VMs anywhere in the private cloud. The requirement only specified this restriction for the Production project.

E. Enforce single-control-node for Production:
This violates the "default" requirement that clusters must tolerate a failure. Production workloads typically require high availability.

Reference:

VMware Cloud Foundation / vSphere with Tanzu Documentation: Look for "Managing IaaS Resource Policies." It explains how policies assigned at the Organization level provide defaults, while Project-level policies allow for specific overrides to control Kubernetes cluster sizing (control plane count) and restricted resource types (VM vs. Pod).

C.   Use the VCF Download Tool

Explanation:

When deploying VMware Cloud Foundation (VCF) in a dark site (an air-gapped environment with no internet connectivity), the administrator must first download all required installation binaries on a machine that has internet access, then physically transfer them to the isolated environment .

Why Other Options Are Incorrect

A. Use Broadcom DownloadsManual portal downloads provide individual ISOs, but VCF requires complete bundle sets with metadata that only the VCF Download Tool packages correctly for offline depots .

B. Use SDDC ManagerSDDC Manager requires internet connectivity to pull bundles directly from the online depot and cannot function in a dark site environment .

D. Use the VCF InstallerThe installer consumes binaries from a depot but cannot download them. In dark sites, it must be pointed to a pre-populated offline depot created by the VCF Download Tool .

References
Broadcom TechDocs: "Download Install Binaries to an Offline Depot"
Broadcom TechDocs: "Download VCF Core Component Binaries to an Offline Depot"
VMware Blog: "Using the Offline Bundle Transfer Utility for Disconnected VMware Cloud Foundation Sites"

B.   Cluster API

Explanation:

Cluster API (CAPI) is the open-source project used by vSphere Kubernetes Service (VKS) to provision Kubernetes workload clusters. CAPI provides declarative APIs and controllers that handle the full lifecycle—creation, scaling, upgrades, and deletion—of Kubernetes clusters. In VCF 9.0, the vSphere Supervisor acts as the CAPI management cluster, using the Cluster API Provider for vSphere (CAPV) to provision VKS clusters as native cloud resources. This enables consistent, automated, and policy-driven cluster deployments.

Why Other Options Are Incorrect

A. Carvel
Carvel is a suite of tools for building, packaging, and deploying applications on Kubernetes. It does not provision Kubernetes clusters themselves.

C. cert-manager
cert-manager automates TLS certificate issuance and renewal inside Kubernetes clusters. It has no role in provisioning cluster infrastructure.

D. Harbor
Harbor is a private container image registry for storing and scanning images. It is unrelated to cluster lifecycle management.

References

Broadcom TechDocs: "Workflow for Provisioning VKS Clusters Using VCF CLI" – Confirms Cluster API as the provisioning engine

Broadcom TechDocs: "About VKS Cluster Provisioning" – States VKS is an implementation of the open-source Cluster API project

B.   Cluster

C.   Service

Explanation:

1. Security Groups (A):
In a service mesh environment, Security Groups are used to define boundaries for communication policies. They allow an administrator to collect a set of services or identities and apply consistent security postures, such as Mutual TLS (mTLS) requirements, authorization policies, and distributed firewall rules. This ensures that even as the number of microservices scales, security is managed at a group level rather than an individual proxy level.

2. Service Groups (C):
Service Groups are the primary organizational unit for management within the mesh. They allow administrators to aggregate multiple services—potentially spanning across different clusters or namespaces—into a single logical entity. This simplifies traffic management, load balancing, and observability. For example, you can apply a "canary" deployment policy or a traffic-splitting rule to a Service Group to manage how requests are distributed across versioned instances of an application.

Why the other options are incorrect:

B. Cluster:
While Istio manages services across clusters, "Cluster" is a physical or logical infrastructure boundary, not a specific "group type" created within the Istio management layer to collect service objects.

D. API:
While Istio manages APIs and uses Gateway resources to expose them, "API Group" is not a standard organizational construct for managing objects within the internal mesh inventory in the same way Security and Service groups are.

E. Node: Nodes are the underlying virtual machines or bare-metal hosts (part of the data plane). While services run on nodes, Istio abstracts management away from the node level to the service level.

Reference:

VMware Cloud Foundation / Tanzu Service Mesh Guide: Look for "Object Management in Service Mesh." It details how the manager uses Service Groups for traffic and performance management and Security Groups for establishing zero-trust boundaries and encryption policies.

C.   Initiate the transfer from the Control Panel in VCF Operations.

Explanation:

To migrate only logs newer than 90 days from Aria Operations for Logs 8.x to VCF Operations for Logs, the administrator must use the Log Data Transfer feature, which is initiated from the Control Panel in VCF Operations.

Why Other Options Are Incorrect

A. Configure log forwarding in Aria Operations for Logs
Log forwarding only sends new logs after configuration. Already ingested historical logs (including those newer than 90 days) are not forwarded to VCF Operations.

B. Import logs from an NFS archive
NFS archive import is intended for long-term archived logs, not for selective time-based migration during platform transition. This method uses CLI and is designed for archived data, not live historical data.

D. Initiate the transfer from Aria Operations for Logs
The transfer must be initiated from VCF Operations, not from the source Aria Operations instance. The Log Data Transfer feature resides in the VCF Operations Control Panel.

References

Broadcom TechDocs: "Log Data Transfer" – Official documentation confirming Log Data Transfer for up to 90 days from VCF Operations Control Panel

Broadcom Knowledge Base Article 402314: "Upgrade Guidance for Aria Operations for Logs 8.18.3 to VCF Operations for Logs 9.0"

D.   Centralized Connectivity

Explanation:

Understanding Centralized Connectivity (D):
In the context of VKS and NSX-T/NSX integration within VCF, Centralized Connectivity refers to the use of a Tier-0 or Tier-1 Gateway where specific services (like NAT, Load Balancing, and Edge Firewalling) are processed. When container workloads need to reach external corporate resources, the traffic must exit the logical overlay and enter the physical network. Centralized connectivity ensures that the North-South traffic flows through the NSX Edge Nodes, providing a single point of egress/ingress that can be managed, secured, and routed to the corporate backbone.

Why the other options are incorrect:

A. Round-robin Connectivity:
This is not a recognized gateway connectivity type in VMware NSX or VCF networking. Round-robin is a load-balancing algorithm, not a topological connectivity method.

B. Distributed Connectivity:
While NSX uses a Distributed Router (DR) for East-West traffic (traffic between VMs or containers on the same host or different hosts), the DR cannot provide connectivity to external physical networks on its own. It requires a Service Router (SR) component, which is centralized on Edge nodes, to handle North-South traffic.

C. Physical Connectivity:
While the gateway eventually connects to physical switches, "Physical Connectivity" is too generic and is not the technical term used within the VCF/NSX management interface to describe the gateway deployment mode for VKS workloads.

Reference:

VMware Cloud Foundation / NSX Networking Guide: Refer to the sections on "Tier-0 and Tier-1 Gateway Architecture." It describes the difference between Distributed (DR) and Service (SR) routers, highlighting that North-South connectivity to corporate or public networks requires the centralized services provided by the Edge Cluster.

B.   Assign the Custom Group to the new policy.

C.   Create a new policy under "Organization Policy" and enable the additional metrics.

F.   Create a Custom Group and add the business-critical VMs.

Explanation:

1. Create a Custom Group and add the business-critical VMs (F):
Because the VMs are organized based on a naming schema, the most efficient way to manage them is by creating a Custom Group with Dynamic Membership rules. The administrator defines a rule (e.g., "VM Name contains 'Prod-App'") so that any existing or future VM following that schema is automatically added to the group.

2. Create a new policy under "Organization Policy" (C):
VCF Operations uses a policy inheritance model. The requirement states the "Organization Policy" must be used for the entire environment. By creating a new child policy specifically for business-critical VMs under the Organization Policy, the child policy inherits all the global settings but allows the administrator to enable additional metrics specifically for these VMs.

3. Assign the Custom Group to the new policy (B):
Once the Custom Group (containing the VMs) and the New Policy (containing the metrics) are created, they must be linked. By assigning the Custom Group to the new child policy, the system ensures that the extra monitoring overhead and specialized metrics are only applied to the specific VMs identified by the naming schema, leaving the rest of the fleet under the standard "Organization Policy."

Why the other options are incorrect:

A & D. Custom Datacenter:
Custom Datacenters are used to aggregate objects (like clusters or hosts) for capacity planning and reporting across physical boundaries. They are not the standard mechanism for applying specific metric collection policies to individual VMs based on naming conventions.

E. Create a new policy under "Base Settings":
Creating a policy under "Base Settings" would bypass the "Organization Policy" inheritance. The requirement specifically mandates that the "Organization Policy" remains the standard for the environment.

Reference:

VMware Cloud Foundation Operations Guide: Refer to "Policy Inheritance and Overrides" and "Creating Custom Groups with Dynamic Rules." These sections explain how child policies refine monitoring for specific subsets of objects without disrupting the global configuration.