The 3V0-24.25 exam validates your expertise in Advanced VMware Cloud Foundation 9.0 vSphere Kubernetes Service and leads to the VMware Certified Advanced Professional, VCAP Cloud Foundation vSphere Kubernetes Service credential. This exam is designed for experienced VMware professionals who manage and optimize cloud infrastructure at scale. This page provides a clear roadmap of exam topics, question formats, and practical preparation strategies to help you study efficiently and pass with confidence.
Use this topic map to guide your study for VMware 3V0-24.25 (Advanced VMware Cloud Foundation 9.0 vSphere Kubernetes Service) within the VMware Certified Advanced Professional, VCAP Cloud Foundation vSphere Kubernetes Service path.
The 3V0-24.25 exam combines multiple question types to assess both conceptual knowledge and practical decision-making in real-world scenarios.
Questions progress in difficulty and emphasize practical application, ensuring candidates can both understand concepts and execute solutions in production settings.
A structured study plan aligned to exam domains ensures comprehensive coverage and builds confidence. Dedicate time each week to one or two topics, practice questions regularly, and simulate exam conditions as you approach test day.
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The Install, Configure, Administrate and Troubleshoot/Optimize domains typically account for a larger portion of the exam because they test hands-on proficiency. However, the Plan and Design domain is equally critical for advanced professionals, as it validates your ability to architect solutions that meet business needs. Balance your study time across all four domains while spending extra practice time on areas where your experience is limited.
In production environments, a well-designed solution (Plan and Design) leads to smoother deployments (Install/Configure/Administrate) and fewer issues during operations (Troubleshoot/Optimize). For example, if you design proper capacity headroom and failover mechanisms upfront, you reduce the likelihood of performance bottlenecks and service interruptions later. Understanding these connections helps you answer scenario-based questions more effectively and apply knowledge holistically.
VMware recommends at least two to three years of experience with VMware Cloud Foundation and vSphere Kubernetes Service. Hands-on labs are invaluable; prioritize labs that cover cluster deployment, namespace creation, storage policy configuration, and network troubleshooting. If you lack access to a production environment, use VMware's free or trial environments to build muscle memory with real interfaces and workflows.
Many candidates misread scenario details and choose answers too quickly without analyzing all constraints. Others confuse similar features across VMware products or miss subtle differences in configuration steps. A frequent error is overlooking the "best practice" angle in questions, the technically correct answer may not be the most efficient or scalable approach. Always read questions twice, consider the business context, and think about long-term maintainability.
Review weak domains identified in your practice tests rather than re-reading material you already know well. Take a full-length timed practice exam to simulate test conditions and build stamina. In the days immediately before your exam, do light review of key terminology and workflows, but avoid cramming new content. Get adequate sleep and manage stress so you arrive at the test center focused and confident.
What are three benefits of VMware vSphere Kubernetes Service (VKS)? (Choose three.)
VCF 9.0 defines VKS as an upstream Kubernetes offering that isbuilt for vSphereand delivered with ''well-thought-out defaults'' to reduce operational burden. It states VKS provides an''opinionated installation of Kubernetes''with defaults ''optimized for vSphere,'' which ''reduce[s] the amount of time and effort'' typically spent deploying and running an enterprise Kubernetes cluster---this directly supportssimplified management and operations (A).
VCF 9.0 also emphasizes VKS is''integrated with the vSphere infrastructure''(storage, networking, authentication) and is built on a Supervisor that maps to vSphere clusters, creating a ''unified product experience.'' This supportsconsistent Kubernetes deployment on vSphere (B)because clusters are provisioned and operated in a standardized, vSphere-native way.
Finally, VCF 9.0 states VKS clusters ''use open source Linux-based'' components from VMware by Broadcom and notes key integrations (for example, CNI options) are open source---supportingleveraging open-source technologies (D).
OptionsCandEare not VKS benefits as stated: VKS targets VKS-provisioned upstream Kubernetes clusters (not ''any distribution''), and ''pods directly on ESXi'' is described asvSphere Pods(Workload Management), not a defining benefit of VKS clusters.
What is a characteristic of a Kubernetes pod?
VCF 9.0 explains pod fundamentals by describing how Workload Management introducesvSphere Pods, stating a vSphere Pod is ''equivalent of a Kubernetes pod'' and that it ''runs one or more Linux containers.'' This directly eliminates optionB, because a pod can includeone or morecontainers (not only one).
The vSphere 9.0 documentation further defines a KubernetesPodas ''a group of one or more containerized applications that share such resources as storage and network,'' and notes the containers inside a pod are ''started, stopped, and replicated as a group.'' That definition reflects Kubernetes' scheduling and lifecycle model: Kubernetes treats the pod as the primary unit it places and manages together, which is why a pod is regarded as thesmallest deployable unitfor running containerized workloads in Kubernetes. OptionsCandDare incorrect because pods are Kubernetes objects (not ''managed by Docker'' as a smallest entity), and Kubernetes abstracts the underlying runtime/host so pods are not defined as being ''deployed directly on the virtual machine'' as a characteristic.
An administrator is building a secure, multi-tenant container registry strategy for their vSphere Kubernetes Services deployment running on VMware Cloud Foundation. Each workload domain hosts a Supervisor Cluster, and multiple development teams require private repositories to store and distribute container images for Kubernetes clusters. The organization enforces strict image security posture due to compliance requirements. The operations team deploys Harbor as an add-on service through the Supervisor control plane, and developers push/pull images from Harbor through Kubernetes manifests.
What requirement describes the role and purpose of Harbor?
Harbor is used as aprivate registry serviceto store and distribute container artifacts for Kubernetes consumption, which is exactly what's needed for a multi-tenant platform where multiple teams require isolated repositories. The VMware documentation treats Harbor as aVMware Tanzu Harbor Registry service, including governance around who can operate it and how teams are separated intoprojects(a key multi-tenancy boundary). For example, vSphere privileges explicitly cover the ability tocreate or delete a Harbor registryand tocreate, delete, or purge Harbor registry projects, reinforcing that Harbor is operated as a managed registry with project-scoped administration and access control.
In practice for regulated environments, the registry role is not just storage---Harbor is commonly used to enforce enterprise controls likepolicy-driven access (RBAC), and it supports security capabilities such asimage vulnerability scanningandimage trust/signing, which directly address the requirement to prevent unsafe images from being promoted or deployed.
Which two package management tools can be used to configure and install applications on VMware vSphere Kubernetes Service (VKS)? (Choose two.)
VCF 9.0 positions VKS clusters as Kubernetes-native environments where platform teams install and manage ''standard packages'' and add-ons. In VCF Automation's VKS overview, VMware states that a set of packages is automatically included with a VKS cluster, includingkapp-controllerandsecret-gen controller. These components are part of theCarveltoolchain used for packaging and deploying applications/configuration in a Kubernetes-friendly, declarative way.
In addition, the VCF 9.0 CLI ''package'' workflows explicitly supportytt overlaysduring package installation/updates (for example, --ytt-overlay-file and --ytt-overlays), which are configuration mechanisms associated with Carvel-based packaging workflows.
Helmis the other widely used Kubernetes package manager for installing and configuring applications through charts and values, and is commonly used by DevOps teams on Kubernetes clusters such as VKS for app deployment and configuration management. By contrast, Fluent Bit is a log shipper, Multus is a CNI multiplexer, and Grafana is a visualization tool---none are package management tools.
How should an administrator enable autoscaling for a vSphere Kubernetes Service (VKS) cluster?
In VCF 9.0, cluster autoscaling is delivered as anoptionalcapability that requires installing theCluster Autoscaleras a standard package. The VCF 9.0 materials explicitly call out Cluster Autoscaler as an optionally installed package for vSphere Kubernetes Service, alongside other optional packages (for example, Harbor, Velero, Istio, etc.). The release information further emphasizes that autoscaling features (including newer behaviors such as scaling from/to zero for supported VKr versions) require that ''the autoscaler standard package'' be installed.
Operationally, installing the autoscaler package provides the controller that watches pending pods and node utilization signals and then drives the required changes in desired worker capacity. After that controller is present, you typically express scaling intent through the cluster's declarative configuration (for example, worker pool/node pool constraints and limits) so the autoscaler can act within the boundaries you define. Without the autoscaler package, changing replica counts or expecting automatic node growth/shrink will not produce autoscaling behavior because the control loop that performs those actions is missing.
