VMware 2V0-13.25 is the current VMware Cloud Foundation 9.0 Architect exam that leads to the VMware Certified Professional – VMware Cloud Foundation Architect certification. Broadcom’s current certification catalog continues to list it in the VMware Cloud Foundation career track. The official exam guide was last updated August 15, 2025 and states that the content is based on VCF 9.0.
The current 2V0-13.25 exam contains 60 items and uses a scaled passing score of 300. Candidates receive an appointment time of 135 minutes, which includes additional time intended to accommodate non-native English speakers. Delivery is proctored through Pearson VUE. The blueprint is fundamentally a design exam rather than an implementation or troubleshooting exam.
The candidate profile is explicitly architectural
Broadcom describes the minimally qualified candidate as someone who can design a VMware Cloud Foundation solution that meets stakeholder requirements. The candidate should understand VCF architecture across compute, storage, networking, and cloud management and should translate business objectives into a technical solution.
The guide also expects one to two years of experience designing VMware-based solutions, including at least six months working specifically with VCF, plus familiarity with vSphere, vSAN, NSX, and Aria Suite components.
AMPRS is a core design lens
The official guide repeatedly frames design characteristics as availability, manageability, performance, recoverability, and security—AMPRS. These characteristics help the architect evaluate whether a proposed design meets the actual requirement rather than merely using the correct product.
A design can improve availability while increasing operational complexity or cost. The exam expects candidates to recognize and document those trade-offs.
Section 1 covers architecture and design language
The first testable section asks candidates to distinguish business requirements from technical requirements; conceptual, logical, and physical designs; requirements, assumptions, constraints, and risks; and the AMPRS characteristics. It also includes risk mitigation, design decisions, decision implications, and design validation.
This section creates the vocabulary used by the rest of the exam. If a candidate cannot distinguish a requirement from a constraint or a logical design from a physical design, later scenario questions become much harder.
Design decisions must trace back to requirements
Objective 1.6 explicitly asks candidates to establish relationships between design decisions and requirements and to specify the implications of those decisions. That is an important clue about exam style: answers should be defensible in terms of stakeholder needs.
Architectural reasoning is not “VMware recommends X.” It is “X satisfies this requirement, while accepting these consequences.”
Section 2 focuses on VMware Cloud Foundation architecture options
The second testable section contains a focused objective: given a scenario, differentiate among VCF architecture options. Candidates should understand how different topologies and component choices fit different organizational, scale, availability, and operational requirements.
This is less about memorizing every VCF component screen and more about recognizing the architectural effect of a platform choice.
Section 3 is the heart of the exam
Plan and Design the VMware Solution contains most of the detailed objectives. Candidates must gather and analyze business objectives, create conceptual models, and then create VCF logical and physical designs.
The guide explicitly includes VCF prerequisites, fleet topologies, network infrastructure, management domains, workload domains, VCF networking, automation, and operations in both logical and physical design contexts.
Logical and physical design are deliberately separate
A logical design describes how components and services relate without committing every decision to specific hardware, addresses, or placement. A physical design maps those decisions to deployable infrastructure, capacity, locations, and concrete topology.
The exam expects candidates to know when a design statement belongs to the conceptual, logical, or physical level and to keep the levels consistent with one another.
Availability, manageability, performance, recoverability, and security have dedicated objectives
The blueprint includes design for availability within an availability zone and across availability zones, lifecycle management, scalability, capacity management, performance, business continuity, disaster recovery, and security for VCF management components and workloads.
These objectives turn AMPRS from theory into scenario decisions. Candidates should connect each characteristic to the relevant failure domain, operational requirement, or workload need.
Migration, consumption, automation, and monitoring complete the design scope
The exam includes workload migration/onboarding, VCF consumption strategy, automation tenant design, self-service and governance, automation of VCF infrastructure components, modern applications, and monitoring of management components and workloads.
The official guide’s distinction between business and technical requirements is central because VCF architecture begins with stakeholder outcomes. A request such as “support business growth without planned downtime” is not yet a complete technical requirement. The architect must translate it into measurable capacity, availability, lifecycle, and operational conditions that can guide the design.
Constraints and assumptions also deserve explicit treatment. A fixed data-center footprint, existing network design, budget ceiling, or regulatory requirement can limit the solution space. An assumption such as “the secondary site has sufficient power” must be validated. The exam expects architects to recognize that unvalidated assumptions can become risks when physical design begins.
Risk mitigation should be documented alongside the risk itself. If a design depends on a single external DNS source, the architect should decide whether redundancy, operational procedure, monitoring, or another mitigation reduces the risk to an acceptable level. A risk register without a mitigation strategy is incomplete design work.
Design validation is the final objective in Section 1 because architecture should be tested against its own requirements. Validation can include design reviews, capacity checks, compatibility verification, recovery exercises, proof-of-concept work, and stakeholder sign-off. The important point is that a design should not be declared complete merely because diagrams are finished.
Fleet topology is one of the logical and physical design areas because VCF can span multiple environments and lifecycle domains. Candidates should understand why management and workload components may be organized differently according to scale, geography, failure domains, or operational ownership. The topology should support the organization’s intended growth and governance model.
Management-domain design deserves special attention because management components are dependencies for the rest of the private cloud. Availability, capacity, placement, networking, lifecycle, and recovery choices for management services can influence whether administrators can operate workload domains during a failure.
Workload-domain design should begin from workload characteristics rather than from one standard cluster size. Performance, isolation, hardware needs, security, lifecycle, availability, and growth can all justify separate workload domains or different resource profiles. The architect must explain the benefit and the operational consequence.
Networking design crosses both logical and physical layers. Logical design defines connectivity, segmentation, routing, and service requirements, while physical design maps those needs to actual interfaces, switches, uplinks, availability, capacity, and site topology. DNS and NTP are also important because many VCF components depend on consistent name resolution and time.
Automation and operations are included in both logical and physical design because the private cloud is intended to be consumed and managed as a service. Automation can reduce manual provisioning, while operations tooling provides visibility, capacity information, and health evidence. The architect should know which operational capability is required before choosing implementation detail.
The current blueprint’s lack of testable objectives in install/configure and troubleshoot/optimize should shape preparation deliberately. Hands-on experience remains useful for understanding design implications, but exam study should prioritize why a topology, capacity plan, recovery strategy, or monitoring design is appropriate. Configuration memorization should support architecture, not replace it.
Interoperability and compatibility appear in the candidate profile because VCF rarely exists alone. External storage, identity, backup, monitoring, networking, and workload technologies may depend on specific versions or integration patterns. The architect should treat compatibility as a design constraint that is verified during physical planning and lifecycle management.
Core services such as DNS and NTP are specifically called out because private-cloud platforms depend on reliable name resolution and time synchronization. These services can become hidden single points of failure if they are assumed rather than designed. A sophisticated VCF topology can still fail operationally when foundational data-center services are weak.
Scalability and capacity are listed under manageability because growth affects how the environment is operated. A design should know when clusters, storage, networks, management components, or automation services reach a threshold and how the organization expands them without violating availability or lifecycle requirements.
The exam guide’s recommended course—VMware Cloud Foundation: Solution Architecture and Design—also reinforces the role focus. Broadcom recommends hands-on experience, but the tested skill is the ability to create and validate designs rather than configure every component from scratch.
A strong final scope check is to examine any study note and ask whether it helps classify requirements, choose a topology, evaluate AMPRS, plan capacity, design recovery, secure the platform, migrate workloads, enable consumption, or monitor the solution. If not, it may be useful operational knowledge but peripheral to this particular exam.
The exam’s role boundary is also important: the candidate may occasionally seek support for edge cases, but should independently create normal designs. That means the exam is pitched above introductory product familiarity and below expert design-defense depth. Study should emphasize repeatable architecture judgment within common VCF scenarios.
Broadcom’s current certification catalog still lists 2V0-13.25 under the VCF Architect path, so the exam remains an active career-certification route in October 2026. Candidates should nevertheless verify the current certification page before scheduling because VMware certification paths have changed rapidly in recent years.
That role focus should guide every study decision.
Within the broader VMware certification track, 2V0-13.25 is clearly the VCF architect path. The guide states that Section 4 Install/Configure/Administer and Section 5 Troubleshoot/Optimize have no testable objectives in this exam version, so preparation should remain centered on design.