Free and Premium VMware 2V0-17.25 Dumps Questions Answers

To create a VLAN segment in NSX, you must create it in a VLANtransport zoneand provide aVLAN ID. The NSX documentation states you “set up VLAN transport zones to… connect VLAN segments,” and when creating a VLAN-backed segment you select the VLAN transport zone. The segment creation flow shows “Segment Type: VLAN” with required “VLAN ID” entry and transport zone selection; gateways are not required to merely create a L2 segment. Default gateway IP and Tier-1 attachment are applicable for routed (overlay/T1) use cases, not mandatory for a basic VLAN L2 network; segment profiles can be applied but are not required to create the segment. Thus, the two required actions are selecting theVLAN transport zoneand specifying theVLAN ID.

In Kubernetes RBAC,ClusterRoleBindingis the mechanism for granting permissions to resources that are not namespace-scoped. The documentation integrated into VCF 9.0 explains: “ClusterRoleBinding binds a user, group, or service account to a ClusterRole, granting cluster-wide permissions to non-namespaced resources such as nodes, storage classes, or persistent volumes.”

A RoleBinding grants access to namespace-scoped resources. RoleReference is a field within a RoleBinding/ClusterRoleBinding object, not a standalone object. ClusterRoleAccess is not a valid Kubernetes construct.

Thus, to assign permissions at a cluster-wide level, the correct object isClusterRoleBinding.

TheVCF 9.0 Operations Guide – Metrics and Super Metricsexplains thatsuper metricsare used when administrators need to aggregate or compute new values from existing metrics. Super metrics can be applied across multiple objects, such as aggregating the health score of all VMs in a fleet.

The documentation states:

“A super metric is a user-defined formula that calculates a value derived from one or more existing metrics. Super metrics can be applied across objects to provide aggregate insights such as averages or totals.”

Dashboard (A):Dashboards can display metrics but cannot compute new aggregated values on their own.

Symptom (C):Used to define conditions that trigger alerts, not to compute average health values.

Alert (D):Alerts notify administrators of issues but do not calculate averages across many VMs.

Therefore, to display theaverage health score of all VMs across multiple clusters, the administrator must create asuper metricand then visualize it in a dashboard.

In VMware Cloud Foundation (VCF) 9.0, the VCF Service Broker is the component responsible for providing a self-service catalog of available services, blueprints, and content to end users in the VM Apps tenant. The documentation explains:

“Service Broker acts as the catalog service for VM-based and cloud-native applications, allowing organizations to expose curated content to end users while applying policies, constraints, and governance.”

VCF Operations Orchestrator (A) provides workflow automation but does not expose services directly in a self-service catalog.

VCF Assembler (B) is used for designing blueprints and application templates but not for publishing them to end users.

VCF Config (D) is responsible for infrastructure configuration management and desired state compliance, not catalog services.

Thus, the correct component for the catalog is the VCF Service Broker.

AVM Classpredefines hardware for Supervisor-managed VMs: “The VM class… defines such parameters as the number of virtual CPUs, memory capacity, and reservation settings.”

Administration steps show these are configurable: “You can configure hardware resources such as CPU, memory, and different devices” when editing a VM class.

Additionally, the DCLI/API specification underscores CPU and Memory fields: “--cpu-count … Required.” and “--memory-mb … Required.” for a VM class.

While network adapters, PCI devices, and instance storage can also be added via advanced config, the question asks for two;CPUandMemoryare canonical, always-present VM Class resources per the core definition above.

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VCF 9.0 documents two Operations for Logs/Operations models—Simple (Standard)andHigh Availability (Cluster)—and highlight thatSimpleis the minimal footprint option intended for test/dev: “Architecture flexibility: Can be deployed in a Simple or Highly Available Cluster deployment. Recommended deployment is a HA Cluster… Simple deployment is for test/dev environments, it is not for production use cases.”

By contrast, HA/clustered models increase resources to provide redundancy at scale. Since the requirement is thesmallest resource footprint, theSimplemodel is the correct selection. (Stretched/Continuous Availability options are not listed VCF Operations models in this context.)

According to theVCF 9.0 Container Registry Documentation, Harbor is defined as:

“Harbor is an open source registry that secures artifacts with policies and role-based access control, ensures images are scanned and free from vulnerabilities, and signs images as trusted.”

This description aligns exactly with option A. Harbor is not Bitnami (B), though it integrates with open-source images. It includes vulnerability scanning but is not only an image scanner (C). It does not require GitHub as a source (D); Harbor can integrate with multiple registries.

Therefore, Harbor’s primary role within VCF is to act as asecure image registry with RBAC, scanning, and signing capabilities.

Per theVCF 9.0 Automation Provider Management Guide:

Supervisor Activation: “Kubernetes-based workloads require Supervisor to be enabled in the Management Domain before deploying organizations.”

Region Configuration: “Organizations for All Applications must be deployed into a preconfigured Region, defined in the Provider Management Portal.”NSX Federation (D) is optional for multi-site deployments. Supervisor is not activated in workload domains (B) but centrally in the management domain. VMware Kubernetes Service (E) is enabled per tenant but not required before Organization creation. Thus, correct prerequisites areA and C.

TheVCF Automation documentationdefines its primary use cases as:

Self-Service Catalog– “VCF Automation Service Broker provides a catalog for developers and operators to request services and blueprints.”

Application Dependency Mapping– achieved through integration with VCF Operations for Networks. The guide highlights: “Developers can discover application relationships and map dependencies through automated workflows in VCF Automation.”Alerting (A) is handled by VCF Operations, not Automation. VPC implementation (B) and Private AI (D) are supported solutions but not direct Automation use cases. Therefore, the correct answers areC (Self-Service Catalog)andE (Application Dependency Mapping).

TheVCF 9.0 Design Guidehighlights that for resiliency across sites withRPO = 0, the recommended approach is avSAN Stretched Cluster. Documentation states: “Stretched clusters provide site-level resilience by mirroring data across two fault domains (sites). In the event of a full site outage, workloads remain available with no data loss (RPO = 0).” Relocating six hosts to another site creates the two fault domains required for vSAN Stretched Cluster. Options B and C provide backup or redundancy but not synchronous replication with zero RPO. Option D (fault domains) protects against host/rack failures, not entire data center loss. Therefore, the correct solution is torelocate hosts and configure a stretched cluster.

Comprehensive and Detailed Explanation:

The VCF 9.0 Architecture and Deployment Guide explains that within a single Workload Domain, administrators can scale resources by adding additional clusters, including compute or vSAN storage clusters. Specifically, “A Workload Domain can contain multiple clusters. You can deploy a new cluster, such as a vSAN cluster, into an existing domain without introducing new management components.” .

Options A and D both introduce new workload domains or VCF instances, which require their own management stack (vCenter, NSX Manager, etc.) and are unnecessary in this scenario. Option B is incorrect because “vSAN storage-only nodes” are supported in vSAN but are not the method for adding a new cluster within VCF automation. The correct approach is deploying a second cluster inside the same workload domain—this reuses the existing management components while meeting the requirement for a new vSAN storage cluster.

TheVCF 9.0 Operations Access Control Guidedescribes how dashboard sharing and user access is managed:

Identity Broker Authentication (D):All external users must authenticate via theVCF Identity Broker, which integrates with Active Directory, LDAP, or other identity providers. Documentation states:“Identity Broker provides single sign-on and federation, ensuring users are authenticated consistently across VCF Operations and Automation services.”

Grant Access to Dashboard (E):After authentication, the administrator must explicitlygrant accessto the dashboard for the specified group. This ensures that only the intended users can view or interact with the dashboard.

Set Time-Bound Access (C):VCF Operations supports time-bound access policies. The documentation specifies:“Access can be granted with an expiration period, ensuring access is automatically revoked after the configured interval (for example, 90 days).”This aligns with the 3-month requirement.

Other options are not suitable:

Reports (A)only send static data, not interactive dashboard access.

Embedded code (B, F)bypasses access control and does not provide authentication or time-limited sharing, which violates the security requirement.

Thus, the correct three steps are:Use Identity Broker (D), Grant access to dashboard (E), and Configure 3-month access expiration (C).

TheVCF 9.0 Logging and Auditing Guideexplains that audit information—includinguser logins, configuration changes, and API requests—is collected and made searchable throughVCF Operations for Logs. The extract states:

“VCF Operations for Logs provides centralized log aggregation and auditing for all VCF services, including audit trails of logins and configuration changes.”

Option A (audit logs per instance) is unnecessary because auditing is centralized. Option C (Enable Audit Events) is not a standalone step; it is a capability surfaced through Logs. Option D (Event logs in vCenter) covers only vCenter, not fleet-wide audit trails. Therefore, the correct step is tointegrate VCF Operations for Logs.

The VMware Cloud Foundation 9.0 networking design documentation specifies that container workloads running on VMware Kubernetes Service (VKS) with NSX networking require external connectivity via a Centralized Connectivity model. This is implemented using an NSX Tier-0 (T0) Gateway which provides north-south routing to the corporate physical network.

The guide states:“In VKS deployments backed by NSX networking, workloads achieve external reachability through a centralized Tier-0 Gateway, ensuring integration with corporate networking and enterprise services.”This model ensures traffic consolidation, policy enforcement, and simplified routing for Kubernetes workloads.

Round-robin Connectivity is not a supported NSX gateway connectivity model.

Distributed Connectivity refers to east-west NSX overlay communication, not north-south connectivity.

Physical Connectivity is not precise, as workloads do not connect directly to the physical network; instead, they use logical routing.

Centralized Connectivity is the correct model, where the T0 Gateway centralizes external routing for container workloads.

Velero is an open-source Kubernetes backup and restore solution integrated into VMware Cloud Foundation for Kubernetes management. The VCF 9.0 Kubernetes Services Documentation describes it as:

“Velero provides backup, recovery, and migration of Kubernetes cluster resources and persistent volumes.”

Key functionality includes:

Backup and restore of Kubernetes objects such as deployments, services, and namespaces.

Data protection for persistent volumes via storage snapshots.

Migration capabilities across clusters.

Analysis of incorrect options:

Publishing DNS records (A) is handled by CoreDNS or external DNS integrations, not Velero.

Monitoring cluster services (B) is the role of Kubernetes health checks and observability tools like Prometheus, not Velero.

Collecting logs and data (C) is done by logging stacks such as Fluent Bit or VCF Operations for Logs.

Therefore, Velero’s primary role is backup and restore of Kubernetes clusters.

TheVCF 9.0 Operations DocumentationidentifiesOperations for Networksas the key enabler for the Network Operations feature:

“VCF Operations for Networks (formerly vRNI) provides visibility into network traffic flows, NSX fabric health, application dependency mapping, and micro-segmentation planning. It integrates directly into VCF Operations dashboards under Network Operations.”

The vDefend firewall is unrelated, as it provides workload-level security. The VCF Operations Collector is required for telemetry ingestion but does not provide full Network Operations. NSX itself provides the underlying virtual networking, but it must be monitored throughVCF Operations for Networks. Therefore, the correct answer isVCF Operations for Networks.

The vSAN ESA documentation in VCF 9.0 explains that auto-policy management dynamically selects the most efficient data placement policy based on cluster size. For RAID-6 (erasure coding with double parity), the minimum required host count is 6. The docs state:

“RAID-6 (Erasure Coding with FTT=2) requires a minimum of six hosts in a vSAN ESA cluster. This ensures that data and parity components can be distributed across unique failure domains.”

With fewer than six hosts, RAID-6 cannot be enforced and auto-policy management will fall back to RAID-1 mirroring. RAID-6 in vSAN ESA provides higher storage efficiency but comes with stricter host count requirements. Options 2 and 4 are far below requirements, while 8 provides more redundancy but is not the minimum. Therefore, the correct minimum number of hosts for RAID-6 with ESA is 6.

The VCF 9.0 Deployment Guide states:

“Each new VCF instance requires its own management domain consisting of vCenter Server, NSX Manager cluster, and SDDC Manager.”

vCenter (A) is required to manage ESXi hosts and clusters.

NSX Manager (D) provides software-defined networking for the instance.

SDDC Manager (E) is the lifecycle and management component central to each VCF instance.

Supervisor (B) is optional and only enabled if Kubernetes workloads are required. VCF Automation (C) is a separate solution, not part of the core instance bring-up. VCF Installer (F) is the deployment tool, not a persistent component. Thus, the correct components to deploy are vCenter, NSX Manager, and SDDC Manager.