VMware 3V0-21.23 Exam Guide: Mastering vSphere 8.x Advanced Design and VCAP-DCV Design Certification

Virtualization has changed the way organizations build, manage, and scale their IT infrastructure. However, operating a virtualized environment and designing one are two very different responsibilities. A VMware administrator may know how to configure an ESXi host or deploy a virtual machine, but a virtualization architect must understand how those components work together to deliver availability, performance, security, and business continuity.

This distinction is at the heart of the VMware vSphere 8.x Advanced Design exam (3V0-21.23).

Associated with the VMware Certified Advanced Professional – Data Center Virtualization Design (VCAP-DCV Design) certification, this advanced examination focuses on translating business requirements into reliable and scalable VMware infrastructure designs.

Whether you are an experienced VMware administrator planning to move into architecture or an IT professional developing enterprise infrastructure design skills, understanding the 3V0-21.23 exam objectives can help you take the next step in your virtualization career.

What Is the VMware 3V0-21.23 Exam?

The VMware 3V0-21.23 examination, officially titled VMware vSphere 8.x Advanced Design, evaluates a candidate’s ability to develop conceptual, logical, and physical designs for enterprise VMware vSphere environments.

Unlike exams primarily focused on product configuration, the Advanced Design examination emphasizes architectural decision-making. Candidates must evaluate customer requirements, identify technical constraints, assess operational risks, and select appropriate infrastructure solutions.

The examination covers essential design considerations across compute, networking, storage, security, capacity planning, availability, and recoverability.

For candidates beginning their preparation, a structured VMware 3V0-21.23 exam preparation resource can help organize the technical topics alongside the official examination blueprint.

VMware 3V0-21.23 Exam Details

Important: These details are based on the official Broadcom examination guide updated December 31, 2024. Certification requirements, scheduling availability, fees, and retirement policies may change. Confirm the current examination status through Broadcom and Pearson VUE before registering.

Why Is the VCAP-DCV Design Certification Valuable?

VMware certifications have long been recognized within enterprise infrastructure and virtualization environments. However, the value of an advanced design certification goes beyond demonstrating familiarity with a particular software platform.

The VCAP-DCV Design certification is relevant because it focuses on the decisions that determine whether a virtual infrastructure can successfully support business operations over time.

1. Demonstrates Enterprise Architecture Skills

Designing a production VMware environment involves balancing several competing objectives.

For example, an organization may require high availability, strong security controls, predictable performance, and low operating costs. Unfortunately, improving one characteristic can introduce additional complexity or expense elsewhere.

A virtualization architect must identify these trade-offs and recommend solutions supported by measurable business requirements.

The 3V0-21.23 examination evaluates this decision-making process rather than simply testing whether candidates remember configuration options.

2. Supports Career Development

Professionals with advanced VMware design knowledge may pursue positions such as:

• VMware Solutions Architect
• Virtualization Infrastructure Architect
• Data Center Solutions Architect
• Senior VMware Engineer
• Private Cloud Infrastructure Consultant
• Enterprise Infrastructure Architect

Certification alone does not guarantee a job or salary increase. Nevertheless, when combined with practical experience, advanced architectural knowledge can strengthen a professional’s ability to contribute to complex infrastructure projects.

3. Builds a Foundation for Modern Private Cloud Architecture

VMware vSphere remains an important technological foundation for enterprise virtualization and private cloud infrastructure.

Organizations increasingly expect infrastructure professionals to understand how compute, storage, networking, security, and lifecycle management fit into a unified operating model.

The design principles developed while preparing for 3V0-21.23 remain useful when working with broader VMware Cloud Foundation environments.

Understanding the VMware vSphere 8.x Architecture

Before exploring the detailed examination objectives, candidates should understand the fundamental components of a VMware vSphere deployment.

At a high level, VMware vSphere consists of the ESXi hypervisor, vCenter Server management platform, and supporting services that enable virtual machine operation, resource management, and infrastructure availability.

VMware ESXi: The Compute Foundation

VMware ESXi is a bare-metal hypervisor that runs directly on physical servers. It enables multiple virtual machines to share hardware resources while maintaining logical isolation between workloads.

From a design perspective, selecting an ESXi host involves more than comparing processor speeds or memory capacity.

Architects must consider:

• CPU compatibility and workload requirements
• Memory sizing and overcommitment policies
• Hardware redundancy
• Storage connectivity
• Network adapter availability and bandwidth
• Host maintenance requirements
• Hardware and software compatibility

A well-designed ESXi environment should provide sufficient resources for both normal production operations and anticipated failure scenarios.

VMware vCenter Server: Centralized Management

VMware vCenter Server provides centralized management for ESXi hosts, clusters, virtual machines, networking, and numerous infrastructure services.

Architects must consider vCenter deployment topology, management availability, authentication, access control, backup strategy, and recovery procedures.

A particularly important design consideration is understanding the operational impact of losing access to vCenter Server.

Running virtual machines generally continue operating when vCenter becomes unavailable, but centralized management operations and certain automated functions may be affected.

Therefore, a vCenter availability strategy should be based on business requirements rather than assuming that every management component requires the most expensive possible redundancy model.

Core Topics Covered in the VMware 3V0-21.23 Exam

The official examination blueprint emphasizes architectural concepts, VMware solutions, and the planning and design process.

Understanding these subjects is essential for candidates working toward the VCAP-DCV Design certification. The following sections explain the major knowledge areas covered by the examination.

1. Business Requirements and Technical Requirements

One of the most important responsibilities of an infrastructure architect is translating business expectations into technical requirements.

Consider a financial services organization planning to virtualize several business-critical applications.

Management may define the following requirements:

• Critical applications must remain available during a single host failure.
• Infrastructure must support predictable business growth.
• Administrative access must follow company security policies.
• Recovery procedures must meet agreed business continuity objectives.

The architect must transform these statements into measurable technical decisions.

For example, the requirement to tolerate a host failure could influence cluster size, resource reservations, storage redundancy, and VMware HA admission control.

Similarly, a defined recovery time objective could influence backup architecture, replication strategy, and disaster recovery automation.

Requirements, Constraints, Assumptions, and Risks

Candidates should be comfortable distinguishing between four fundamental design concepts:

• Requirements: Capabilities or outcomes that the proposed solution must deliver.
• Constraints: Restrictions that limit available design choices.
• Assumptions: Conditions believed to be true but requiring validation.
• Risks: Potential events or conditions that may negatively affect the solution.

For example, if an organization requires the solution to use an existing storage platform, that condition represents a design constraint.

If the organization requires the platform to support application recovery within a specified timeframe, that condition represents a recoverability requirement.

Recognizing these distinctions is essential for answering scenario-based VMware design questions.

2. Conceptual, Logical, and Physical Design

The VMware 3V0-21.23 exam expects candidates to understand how an infrastructure design progresses from business objectives to implementable technical specifications.

Conceptual Design

A conceptual design describes the solution at a high level and establishes how the architecture supports business objectives.

It identifies major infrastructure components, required capabilities, and the overall operating model without becoming dependent on specific hardware details.

Logical Design

A logical design explains how the solution will function.

It may define:

• Cluster organization
• Management boundaries
• Network segmentation
• Storage architecture
• Availability policies
• Security requirements
• Resource allocation strategies

Physical Design

A physical design translates logical decisions into specific implementation details.

These details may include server models, CPU and memory configurations, physical network connections, storage adapters, VLAN assignments, and other deployment specifications.

The key principle is that physical technology choices should support the logical architecture, which must ultimately satisfy the original business requirements.

3. Designing for Availability with VMware HA

Availability is a central consideration in enterprise VMware environments.

VMware vSphere High Availability (HA) can restart affected virtual machines on surviving hosts following supported host failure conditions.

However, enabling HA does not automatically guarantee that an application will satisfy every availability requirement.

Architects must consider several factors:

• Cluster capacity after a host failure
• HA admission control policies
• Host isolation behavior
• Datastore accessibility
• Network redundancy
• Application restart dependencies
• Monitoring and recovery procedures

For example, a four-host cluster may appear to provide sufficient capacity during normal operation. But if the workloads already consume most of the available resources, the loss of one host could create significant resource contention.

A robust architecture should account for the capacity required during realistic failure scenarios.

Architects must also understand the distinction between VMware HA and VMware Fault Tolerance. These technologies address availability through different mechanisms and have different operational requirements.

4. VMware DRS and Resource Management

VMware Distributed Resource Scheduler (DRS) helps optimize virtual machine placement and resource distribution across hosts within a cluster.

DRS evaluates resource conditions and can recommend or initiate migrations based on applicable policies and configuration.

From an architectural perspective, important considerations include:

• Cluster resource capacity
• Virtual machine placement policies
• VM and host affinity rules
• Workload performance characteristics
• Maintenance operations
• Resource contention and operational flexibility

For instance, an organization might want two application servers separated across physical hosts to reduce the impact of a single server failure.

VM placement rules can help support that objective, but their interaction with resource availability and operational constraints must be carefully evaluated.

An architect should understand when strict placement restrictions support business requirements and when they may create unnecessary operational risk.

5. Storage Architecture and VMware vSAN

Storage design plays an essential role in virtualization performance, availability, and scalability.

VMware vSphere environments can use several storage architectures, including traditional shared storage and VMware vSAN.

The appropriate architecture depends on workload characteristics, infrastructure requirements, operational preferences, and compatibility constraints.

Traditional Shared Storage

Shared storage technologies commonly used with VMware environments include:

• Fibre Channel SAN
• iSCSI storage
• NFS-based storage
• Supported NVMe storage architectures

Architects should understand storage path redundancy, multipathing, capacity requirements, latency, throughput, and operational complexity.

VMware vSAN

VMware vSAN provides software-defined storage capabilities by using supported local storage resources in participating hosts.

Important design considerations include:

• Host and device compatibility
• Storage capacity planning
• Storage policies
• Fault tolerance requirements
• Network bandwidth and latency
• Failure domains
• Maintenance and rebuild capacity

Candidates should also understand the architectural differences between vSAN Original Storage Architecture (OSA) and vSAN Express Storage Architecture (ESA), including their supported deployment requirements.

The correct storage decision should be based on measurable workload and availability requirements, not simply on choosing the newest available technology.

6. Designing VMware vSphere Networking

Networking is particularly important for candidates transitioning from traditional network engineering into virtualization architecture.

In VMware vSphere, network design must support both physical connectivity and virtualized workloads.

Key concepts include:

• vSphere Standard Switches
• vSphere Distributed Switches
• VMkernel adapters
• VLAN-based segmentation
• NIC teaming and failover policies
• vMotion networking
• Storage network connectivity
• Management network redundancy
• Network performance and security

Standard Switch vs. Distributed Switch

A vSphere Standard Switch is configured at the individual ESXi host level, while a vSphere Distributed Switch provides centralized management of virtual switching across participating hosts.

For larger environments, distributed networking can simplify consistent configuration and operational management.

However, architects should evaluate licensing entitlements, organizational requirements, and supported features before selecting a particular networking architecture.

Network Redundancy

A resilient virtual infrastructure should avoid unnecessary single points of failure.

Redundancy planning may involve multiple physical network adapters, independent switch connectivity, appropriate teaming policies, and careful separation of infrastructure traffic.

The resulting design should be validated against bandwidth, availability, and failure recovery requirements.

7. Security Architecture and Access Control

Security is another important component of VMware infrastructure design.

A secure virtualization architecture should protect the management plane, hypervisor configuration, network access, and virtual machine workloads.

Relevant design considerations include:

• Role-based access control (RBAC)
• Least-privilege administration
• Identity integration
• Multi-factor authentication where supported
• Secure ESXi configuration
• Secure Boot and TPM-related capabilities
• Virtual machine encryption requirements
• Network segmentation
• Certificate management
• Audit logging and monitoring

Security controls should be incorporated during the design process rather than added after the infrastructure has already been deployed.

For example, a company handling sensitive customer information may require administrative separation, encrypted workloads, restricted management connectivity, and documented auditing procedures.

The architect must ensure that the selected security architecture meets these requirements without introducing unacceptable performance or operational limitations.

8. Designing for Recoverability and Disaster Recovery

High availability and disaster recovery are related but distinct concepts.

High availability generally focuses on maintaining or restoring services following localized failures.

Disaster recovery addresses the ability to restore business services after more significant disruptions, potentially including the loss of an entire site.

Two important recovery metrics are:

• Recovery Time Objective (RTO): The targeted maximum time required to restore a service after disruption.
• Recovery Point Objective (RPO): The targeted maximum amount of data loss expressed as a period of time.

For example, an application with an RPO of 15 minutes requires a recovery strategy capable of limiting potential data loss to the specified interval.

An application with an RTO of one hour requires a recovery process capable of restoring the service within that target.

Depending on the business requirements, an enterprise might evaluate backup solutions, replication technologies, recovery orchestration, and secondary-site infrastructure.

It is important to recognize that neither VMware HA nor a simple backup configuration automatically satisfies every disaster recovery objective.

Understanding the AMPRS Design Framework

The official VMware Advanced Design examination blueprint includes the AMPRS design qualities.

AMPRS stands for:

• A – Availability: Maintaining service continuity and minimizing interruptions.
• M – Manageability: Making infrastructure practical to administer, monitor, maintain, and scale.
• P – Performance: Delivering suitable computing, storage, and network performance.
• R – Recoverability: Restoring applications and infrastructure following disruptions.
• S – Security: Protecting infrastructure, workloads, and administrative access.

These qualities provide a useful framework for evaluating infrastructure design decisions.

For example, adding more hosts may improve capacity and availability, but it can also increase licensing, hardware, and operational costs.

Similarly, enforcing strict workload placement policies may support a particular availability requirement while reducing the flexibility of cluster resource management.

Successful infrastructure design requires understanding how these qualities interact.

VMware Cloud Foundation and VMware Validated Solutions

The 3V0-21.23 examination blueprint also identifies VMware Cloud Foundation and VMware Validated Solutions as relevant architecture topics.

VMware Cloud Foundation provides an integrated private cloud architecture that brings together infrastructure components and associated management capabilities.

Candidates should understand the general architectural purpose of VMware Cloud Foundation and how its integrated approach can support infrastructure standardization and lifecycle management.

VMware Validated Solutions provide documented approaches for implementing supported infrastructure use cases.

From a design perspective, validated architectures are valuable because they help organizations establish repeatable deployment patterns and reduce uncertainty associated with complex infrastructure integration.

For the exam, focus on understanding the benefits, components, and appropriate use cases rather than memorizing isolated product descriptions.

Practical VMware vSphere Design Scenario

Consider a manufacturing company operating business-critical applications across a virtualized infrastructure.

The company plans to replace its existing VMware environment and introduces the following requirements:

• Support approximately 150 production virtual machines.
• Maintain application availability following a single ESXi host failure.
• Provide capacity for future business growth.
• Separate management, storage, and workload network traffic appropriately.
• Maintain centralized infrastructure administration.
• Meet documented backup and recovery objectives.

Step 1: Identify the Requirements

The first task is to distinguish mandatory requirements from preferences, assumptions, and constraints.

The architect should gather current workload utilization, growth projections, application dependencies, availability targets, recovery objectives, and infrastructure limitations.

Step 2: Develop the Conceptual Architecture

At the conceptual level, the solution could include a centralized vSphere management platform, resilient compute clusters, redundant networking, and a storage system that supports the required availability and performance targets.

Step 3: Create the Logical Design

The logical design would define cluster organization, resource management policies, network segmentation, storage access, management security, and recovery architecture.

VMware HA could address supported host failures, while DRS could assist with resource balancing.

Step 4: Translate the Design into Physical Specifications

Physical specifications should be derived from workload measurements and validated requirements.

These may include server quantity, CPU and memory capacity, storage configuration, physical network connectivity, and redundancy arrangements.

It would be inappropriate to select an exact host count or storage capacity solely from the number of virtual machines without understanding their actual resource requirements.

Step 5: Document Risks and Design Decisions

Finally, the architect should document major decisions and their justifications.

For example, if a particular storage platform is required because of existing organizational investment, the design should record that constraint and explain its technical implications.

This structured process closely reflects the analytical thinking needed for the VMware 3V0-21.23 examination.

How Difficult Is the VMware 3V0-21.23 Exam?

The VMware vSphere 8.x Advanced Design examination is intended for candidates who already understand virtualization infrastructure and want to demonstrate more advanced architectural skills.

Its difficulty comes primarily from scenario analysis rather than memorizing configuration procedures.

A question may describe a customer environment with several competing business and technical requirements.

Multiple answers might appear technically feasible, but candidates must identify the solution that best satisfies the stated requirements while respecting design constraints.

This makes the exam particularly challenging for professionals who have extensive administration experience but limited exposure to formal infrastructure design methodologies.

How to Prepare for the VMware 3V0-21.23 Exam

A practical study plan should combine official documentation, architectural concepts, hands-on experience, and scenario-based review.

Step 1: Review the Official Examination Blueprint

Start with the official Broadcom VMware vSphere 8.x Advanced Design exam guide.

Pay particular attention to the planning and design objectives, including requirements gathering, conceptual design, logical design, physical design, capacity planning, lifecycle management, availability, performance, security, and recoverability.

The published blueprint does not list testable objectives in Sections 4 and 5, which address installation/administration and troubleshooting/optimization respectively.

Step 2: Strengthen Your vSphere Fundamentals

Before studying advanced architecture, make sure you understand:

• ESXi host architecture
• vCenter Server management
• vSphere clusters
• vMotion
• VMware HA and DRS
• Virtual networking
• Storage connectivity
• Resource management

Candidates unfamiliar with these topics may benefit from reviewing VMware Certified Professional-level knowledge before moving into advanced design scenarios.

Step 3: Study VMware Design Methodology

Practice converting business requirements into conceptual, logical, and physical designs.

For each architectural decision, ask yourself:

• Which business requirement does this decision satisfy?
• What alternatives are available?
• What assumptions are involved?
• What risks does the decision introduce?
• How does the decision affect the AMPRS qualities?

Developing this habit is one of the most valuable preparation techniques for an advanced design examination.

Step 4: Build a VMware Practice Environment

Where licensing, hardware, and lab resources permit, practical experimentation can help connect architectural concepts with real configuration behavior.

Useful activities include:

• Creating ESXi clusters
• Configuring VMware HA policies
• Exploring DRS placement behavior
• Designing VMkernel networks
• Reviewing storage multipathing
• Testing host maintenance scenarios
• Documenting infrastructure failure and recovery procedures

The objective is not simply to memorize configuration steps, but to understand the consequences of each design choice.

Step 5: Practice Scenario-Based Questions

Scenario-based practice can improve your ability to interpret technical requirements and select appropriate architectural solutions.

Look for legitimate study resources that include detailed explanations of why one design option is more appropriate than another.

When reviewing questions, focus on the reasoning behind the answer. Memorization without understanding will not reliably prepare you for unfamiliar design scenarios.

For additional preparation material, candidates can explore the 3V0-21.23 VMware vSphere 8.x Advanced Design study resources available on PeopleDumps as a supplement to official VMware documentation and practical lab exercises.

Step 6: Create Your Own Architecture Case Studies

Design a small virtual infrastructure for a hypothetical customer.

Then introduce additional requirements such as:

• A stricter application availability target
• Rapid growth in storage capacity
• Limited network bandwidth
• Additional security controls
• A requirement for secondary-site recovery

Evaluate how each requirement changes your original design.

This exercise develops the ability to recognize dependencies and architectural trade-offs.

Suggested VMware 3V0-21.23 Study Schedule

The following six-week plan is a practical starting point for candidates who already have a working understanding of VMware vSphere.

This schedule should be adjusted according to your existing VMware experience and the time available for study.

Common Mistakes to Avoid During 3V0-21.23 Preparation

Memorizing Features Without Understanding Requirements

Knowing that VMware HA can restart virtual machines is useful. Understanding when HA meets a customer’s availability requirements is more important.

Ignoring Design Constraints

A technically attractive solution may still be incorrect if it violates a stated budget, compatibility requirement, or operational restriction.

Confusing High Availability with Disaster Recovery

HA, backups, replication, and disaster recovery orchestration address different failure and recovery scenarios. Their capabilities should not be treated as interchangeable.

Overlooking Operational Complexity

A design that satisfies technical requirements but is excessively difficult to maintain may introduce long-term operational risks.

Making Assumptions Not Supported by the Scenario

Exam scenarios often provide enough information to eliminate unsuitable options. Avoid introducing unnecessary assumptions when evaluating an architectural decision.

VMware 3V0-21.23 Frequently Asked Questions

What is the VMware 3V0-21.23 exam?

The 3V0-21.23 exam is the VMware vSphere 8.x Advanced Design examination associated with the VCAP-DCV Design certification. It focuses on designing enterprise VMware infrastructure based on business and technical requirements.

How many questions are in the VMware 3V0-21.23 exam?

The official December 2024 exam guide specifies 60 questions and a 145-minute appointment duration. Candidates should verify the current examination details before registration.

What is the passing score for VMware 3V0-21.23?

The published passing score is 300 on a scaled scoring system. This should not be interpreted as a simple percentage of questions answered correctly.

Is VMware 3V0-21.23 suitable for beginners?

The examination is advanced and is not generally recommended as a first introduction to virtualization. Beginners should first build a foundation in ESXi, vCenter, networking, storage, and infrastructure management.

Does the VMware 3V0-21.23 exam require hands-on experience?

Practical VMware experience is highly beneficial because the examination focuses on architectural decisions and realistic infrastructure scenarios. Candidates should also check the current certification requirements published by Broadcom.

What is the difference between VCP-DCV and VCAP-DCV Design?

VCP-DCV focuses primarily on professional-level VMware data center virtualization knowledge and skills. VCAP-DCV Design emphasizes advanced architecture, requirements analysis, and infrastructure design decision-making.

Where can I find VMware 3V0-21.23 study materials?

Candidates should begin with the official Broadcom examination guide and VMware product documentation. For supplementary preparation, the PeopleDumps VMware 3V0-21.23 preparation page provides an additional resource to explore alongside official references and hands-on learning.

Can I prepare for VMware 3V0-21.23 without attending formal training?

Self-study can help candidates develop the required knowledge through official documentation, practical experience, and scenario analysis. However, applicable certification requirements and training recommendations should always be verified through the current Broadcom program.

Is the VMware 3V0-21.23 exam still available?

Examination availability and certification pathways can change. Before purchasing training or scheduling an examination, check the current Broadcom certification catalog and Pearson VUE registration system for the latest status of exam 3V0-21.23.

Official VMware 3V0-21.23 Study Resources and References

The following official and authoritative resources can help candidates prepare for the VMware vSphere 8.x Advanced Design examination.

1. Broadcom – VMware vSphere 8.x Advanced Design Official Exam Guide
   View the Official 3V0-21.23 Exam Guide
   The primary reference for examination objectives, exam structure, and recommended study materials.
2. Broadcom – VMware Certification Programs
   Explore VMware Certifications
   Official information about VMware certification programs and available learning paths.
3. Broadcom Tech Docs – VMware Product Documentation
   Explore VMware Technical Documentation
   Product documentation covering VMware infrastructure architecture, configuration, and supported capabilities.
4. VMware Cloud Foundation Technical Resources
   Explore VMware Core Technical Resources
   Technical articles, architecture guidance, and infrastructure best practices.
5. Broadcom Knowledge Base
   Access Broadcom Knowledge Articles
   Technical knowledge articles, troubleshooting references, and product guidance.
6. Pearson VUE – Broadcom Certification Exams
   Check Broadcom Exam Registration
   Official examination registration information and testing policies.

Additional VMware 3V0-21.23 Exam Preparation Resources

Preparing for an advanced VMware architecture examination requires more than memorizing product features. Candidates should develop a clear understanding of design methodology, infrastructure dependencies, and the reasoning behind important architectural decisions.

PeopleDumps provides a dedicated resource page for professionals studying VMware vSphere 8.x Advanced Design. It can serve as an additional starting point when organizing your 3V0-21.23 preparation alongside official documentation and hands-on practice.

Explore additional preparation resources:

VMware 3V0-21.23 Advanced Design Exam Preparation – PeopleDumps

Final Thoughts: Is the VMware 3V0-21.23 Exam Worth Studying?

The VMware vSphere 8.x Advanced Design examination represents an important step toward developing professional virtualization architecture skills.

Its greatest value lies in encouraging infrastructure professionals to think beyond individual product features and evaluate technology through the lens of business requirements.

A successful VMware architect must understand how compute, networking, storage, security, and recoverability interact within a complete enterprise infrastructure.

For administrators seeking to move into architecture, studying the 3V0-21.23 objectives can strengthen both technical knowledge and design judgment.

Even as VMware technologies and certification pathways evolve, the fundamental principles of requirements analysis, resilient infrastructure design, capacity planning, and risk management remain relevant.

The most important lesson is simple: effective infrastructure design starts with understanding the business problem, not selecting the technology.

Disclaimer: This article is an independent educational resource and is not affiliated with, sponsored by, or endorsed by Broadcom or VMware. VMware, vSphere, ESXi, vCenter, and associated product names are trademarks of their respective owners. Examination requirements and availability are subject to change.