Free VMware 2V0-33.22PSE Practice Test Questions 2026

Explanation:

VMware Cloud Disaster Recovery (VCDR) is the correct solution for achieving an operational air-gap to stop ransomware propagation to a disaster recovery site. This solution, now part of VMware Live Cyber Recovery, provides the specific isolation capabilities the customer requires.

The solution delivers three critical features that directly address ransomware propagation concerns:

Immutable, Air-Gapped Recovery Points: Snapshots are stored in a secure, VMware-managed Cloud File System that is completely isolated from the production network. This prevents ransomware from accessing or encrypting the recovery data, addressing the common attack vector where ransomware targets backup infrastructure.

Isolated Recovery Environment (IRE):This functions as a true "clean room"—a self-contained environment with no direct network path to production systems, the internet, or any other connected computers. Recovered VMs are partitioned from each other and cannot communicate externally until validated.

Push-Button VM Network Isolation: When restoring after an attack, administrators can isolate VMs from one another, preventing lateral movement of ransomware and avoiding reinfection of the production environment during the recovery process.

Why other options are incorrect

B. VMware Hybrid Cloud Extension (HCX) – Incorrect.
HCX is primarily a workload mobility and migration tool, not a ransomware recovery solution. It facilitates VM migration between on-premises and cloud environments but does not provide immutable, air-gapped recovery points or an isolated recovery environment for ransomware protection.

C. VMware Site Recovery (SRM) – Incorrect.
Site Recovery Manager automates disaster recovery planning and failover between sites but focuses on site-level disasters. It lacks the ransomware-specific features such as air-gapped storage, behavioral analysis of powered-on workloads, or isolated clean room environments for validating clean restore points.

D. VMware Secure Access Service Edge (SASE) – Incorrect.
VMware SASE provides network security and wide-area networking capabilities (SD-WAN, cloud security, zero-trust access). It is not a disaster recovery or ransomware recovery solution and does not offer air-gapped recovery points or isolated recovery environments.

References

VMware Official Product Page: "Immutable, Air-Gapped Recovery Points – Store snapshots in a secure, VMware-managed Cloud File System to preserve data integrity at the time of recovery"

Broadcom TechDocs – Best Practices for the IRE: Describes isolated recovery environment as "air-gapped" with no direct network path to production

Explanation:

In VMware Cloud on AWS, the cloud administrator operates within a shared responsibility model where VMware manages the underlying infrastructure (ESXi hosts, physical hardware, management components). Consequently, the administrator does not have direct access to ESXi hosts via SSH, console, or power management settings—these are VMware-controlled functions. Therefore, the valid troubleshooting steps are those that operate through the customer-accessible management tools: vCenter Server and VMware vRealize Operations Cloud.

B. Use the Troubleshooting Workbench in VMware vRealize Operations Cloud – vRealize Operations Cloud is a customer-accessible monitoring and troubleshooting suite. The Troubleshooting Workbench provides evidence analysis, anomaly detection, and root cause identification for performance issues without requiring direct host access.

E. Use the vSphere Client to connect to vCenter and examine performance statistics – The vSphere Client (connected to the SDDC's vCenter Server) is the standard administrative interface. From here, the administrator can monitor VM performance charts, CPU usage, host utilization, and other key metrics. VMware documentation explicitly states that monitoring CPU usage can be done "through the vSphere Client, using vRealize Operations, or by using resxtop".

Why other options are incorrect

A. Physically access the console of the VMware ESXi host – Incorrect.
The cloud administrator has no physical access to the ESXi hosts, which reside in VMware/AWS data centers. VMware manages all host hardware and console access.

C. Set the power management policy on the VMware ESXi host to "High Performance" – Incorrect.
Host power management policies are configured at the ESXi host level by VMware, not by the customer. The customer cannot modify these settings in the VMC environment.

D. Log in to the VMware ESXi host using SSH and run 'esxtop' – Incorrect.
Direct SSH access to ESXi hosts is not provided to customers in VMware Cloud on AWS. While esxtop is a standard on-premises tool, the cloud equivalent is resxtop (which connects through vCenter), but this still requires access patterns the typical administrator may not use. The valid supported method is monitoring through vCenter or vRealize Operations.

References

Broadcom TechDocs – Host CPU Considerations: "Although esxtop can't be used in VMware Cloud on AWS, resxtop can. It is a good idea to periodically monitor the CPU usage of the host. This can be done through the vSphere Client, using the VMware vRealize Operations management suite"

ExamTopics 2V0-33.22 Discussion: "A, C, and D are things you are explicitly NOT allowed to do on VMware on AWS. That only leaves 2 options left"

Explanation:

A Private Virtual Interface (Private VIF) is the correct connection type for creating a dedicated connection from an existing VPC to VMware Cloud on AWS. This configuration provides direct private access to the SDDC without traffic traversing the public internet.

Why other options are incorrect

A. Public virtual interface – Incorrect.
A public VIF is used primarily for accessing public AWS services (S3, EC2 APIs, etc.) and is not suitable for SDDC management or workload traffic . You cannot use a public VIF to carry SDDC traffic types such as vMotion, HCX, or management traffic that require a private VIF .

B. AWS Direct Connect – Incorrect.
AWS Direct Connect is the overall service, not a specific virtual interface type. The question asks which connection type (VIF type) would meet the requirement. Direct Connect itself encompasses multiple VIF types (public, private, transit), so this answer is too broad and does not specify the correct configuration.

C. Transit virtual interface – Incorrect.
A transit VIF is used when you have an SDDC Group and want to connect a Direct Connect Gateway (DXGW) to provide connectivity to all SDDCs within that group . The scenario describes a single existing VPC connecting to VMware Cloud on AWS, not an SDDC Group requiring transit VIF connectivity. Transit VIFs are a more advanced architecture for multi-SDDC environments.

References

Broadcom TechDocs: "Configure Direct Connect to a private VIF. A private VIF provides direct private access to your SDDC. Configure DX over a private VIF to carry workload and management traffic, including VPN, HCX, and vMotion"

AWS Partner Network Blog: "Customers can use a single hosted Private VIF to connect to their SDDC. This Private hosted VIF allows customers to communicate to their workload virtual machines on the overlay networks, and also to the host management and appliance networks" Broadcom TechDocs - HCX Configuration: "The private virtual interface allows VMware HCX migration and network extension traffic to flow over the Direct Connect connection"

Explanation:

The administrator is attempting to extend a network segment from the cloud back to on-premises (reverse direction) after successfully extending segments from on-premises to the cloud. HCX Network Extension is designed to support bi-directional extension, but this requires specific infrastructure on the on-premises side.

Why other options are incorrect

A. Enable reverse L2E in advanced configuration and re-deploy the HCX Service Mesh – Incorrect.
There is no "reverse L2E" configuration toggle in HCX. The L2 Extension capability is inherently bidirectional once properly configured. Re-deploying the Service Mesh may help with general connectivity issues but does not address the root cause of missing infrastructure prerequisites .

C. Enable reverse L2E, re-deploy the on-premises HCX Manager and re-pair sites – Incorrect
Again, "reverse L2E" is not a valid configuration option. Re-deploying HCX Manager and re-pairing sites is unnecessarily disruptive and does not resolve the requirement for a vSphere Distributed Switch on-premises .

D. Install VMware NSX-T into the on-premises data center – Incorrect.
While NSX-T would certainly enable advanced networking capabilities, it is not a requirement for reverse L2 extension. HCX can extend networks to on-premises vSphere environments that have vDS 6.5+ without NSX-T. This option represents over-engineering and is not the minimal required solution .

References

ExamTopics 2V0-33.22 discussion – Peer consensus identifies option B as correct, citing the vSphere Distributed Switch version 6.5 requirement

CertsHero / Exam4Training – Both confirm: "Ensure that the on-premises environment has at minimum a VMware vSphere Distributed Switch with version 6.5 configured. This will enable the reverse L2E feature"

Explanation:

VMware's partnerships with hyperscalers (like AWS, Microsoft Azure, Google Cloud, and HPE) are designed to bridge on-premises VMware environments with public clouds while preserving existing investments in VMware tools and skills . Two key benefits consistently highlighted are unified operations and seamless workload mobility:

B. Automation of infrastructure operations in a single view
– Hyperscaler partnerships enable a consistent management plane across on-premises and cloud environments. Customers can use familiar VMware tools to automate and monitor infrastructure operations without learning cloud-native management interfaces. For example, HPE GreenLake integrates with VMware Cloud Foundation to provide "full-stack visibility, troubleshooting, insights and remediation for modern infrastructure" from a single console . This unified approach reduces operational overhead and eliminates silos .

C. Seamless workload migration across clouds
– These partnerships enable bi-directional migration without application refactoring or IP address changes. VMware HCX and native integrations allow workloads to move between on-premises data centers and hyperscaler clouds with minimal downtime. As noted in AWS Summit coverage, this allows customers to "easily shift workloads to the cloud" without re-architecting applications . Amazon EVS similarly promises "no IP address changes required" and the ability to run VMware Cloud Foundation workloads within Amazon VPC using existing VMware tools and workflows .

Why other options are incorrect:

A. Access to native public cloud services
– While technically possible, this is not a partnership benefit but rather a capability available to any cloud customer regardless of VMware partnerships. Public cloud services (S3, Lambda, etc.) can be accessed without VMware's involvement.

D. One-click conversion to cloud native services
– Incorrect. VMware partnerships focus on running existing VMware workloads on hyperscaler infrastructure, not automatically converting VMs to cloud-native services (containers, serverless). Such conversion typically requires significant refactoring.

E. Elimination of egress costs
– Incorrect. Data egress charges still apply when moving data out of cloud provider networks. VMware partnerships do not eliminate these costs, though they may optimize traffic paths.

References

ExamTopics discussion– Peer consensus confirms B and C as correct answers

VMware Blog – HPE GreenLake integration highlights unified operations and automated deployment

Explanation:

VMware's multi-cloud vision is centered on providing consistency and standardization across diverse cloud environments while enabling choice. This vision has been a key focus of VMware's strategy for several years.

A. Deliver a consistent management and operations layer across any cloud – This is a core pillar of VMware's multi-cloud strategy. VMware's "Cross-Cloud services" are specifically designed to enable organizations to build, run, and secure applications across public clouds, private clouds, and edge deployments using a single platform and management layer . VMware CTO Kit Colbert has stated that multi-cloud architecture is about providing consistency across cloud environments while allowing customers to leverage cloud provider-specific services as part of a broader portfolio of options .

C. Standardize at the DevSecOps and infrastructure level
– Standardization is central to VMware's multi-cloud approach. VMware envisions a consistent Kubernetes grid across every cloud, achieved through its Tanzu portfolio, which enables application modernization and multi-cloud portability . This standardization at the DevSecOps and infrastructure level allows organizations to run workloads consistently across on-premises, public cloud, and edge environments without being locked into a single provider .

Why other options are incorrect

B. Run the workloads in the cloud to eliminate security issues – Incorrect.
Moving workloads to the cloud does not eliminate security issues. VMware CTO Kit Colbert has noted that modern multi-cloud environments create "a chaotic situation" for security, and VMware's approach is to provide flexible security services, not claim that cloud eliminates security concerns .

D. Reduce the number of developers to increase productivity – Incorrect.
VMware's multi-cloud vision focuses on empowering developers, not reducing headcount. VMware emphasizes enabling developers to use Kubernetes and consume infrastructure resources on their own without requiring IT assistance, which increases developer productivity through automation and self-service, not by reducing team size .

E. Modernize applications in the cloud of choice using the cloud-native services of that cloud provider – Incorrect.
While VMware certainly supports this approach (and Tanzu enables it), this statement describes a customer outcome or implementation option rather than VMware's multi-cloud vision statement. VMware's vision is about providing the consistent operational layer and standardization that makes such modernization possible, not the act of modernization itself. VMware explicitly encourages customers to leverage single-cloud native services as part of their broader portfolio, but this is a tactical option within the vision, not the vision itself .

References
SDxCentral (2025) – VMware CTO interview on multi-cloud consistency
VMware Blogs (2021) – Tanzu and multi-cloud application portability
SDxCentral (2025) – VMware's multi-cloud architecture framework

Explanation:

In VMware Tanzu Kubernetes Grid (TKG), Tanzu Kubernetes Grid extensions (also referred to as "Tanzu Kubernetes Grid packages") are the components that provide additional functionality to the cluster beyond basic Kubernetes operations. These extensions include the specific services mentioned in the question: authentication, ingress, logging, and service discovery.

Why other options are incorrect

A. Tanzu Supervisor cluster – Incorrect.
The Supervisor cluster is a Kubernetes control plane that runs directly on vSphere 7+ with vSphere with Tanzu (formerly TKGS). While it handles authentication and other functions, it is not a "component" you install to provide these services—it is the entire management plane for namespace-based Kubernetes provisioning. The question asks which component provides these capabilities, and the Supervisor cluster does not offer ingress or logging as a standalone service in the same package-based model as TKG extensions.

B. Tanzu CLI – Incorrect.
The Tanzu CLI is a command-line tool used to deploy, manage, and interact with Tanzu Kubernetes Grid clusters and packages. It is the management interface for installing extensions, not the component that provides authentication, ingress, logging, or service discovery. The CLI itself offers no runtime functionality for these services.

C. Tanzu Kubernetes cluster – Incorrect.
A Tanzu Kubernetes cluster (workload cluster) is the actual Kubernetes environment where containerized applications run. While these clusters consume the services provided by extensions (authentication, ingress, etc.), the cluster itself does not inherently provide them. Extensions must be installed into the cluster to deliver these capabilities.

Reference

VMware Tanzu Kubernetes Grid: Install, Configure, Manage [V2.5] – Course covers "how to install Tanzu Kubernetes Grid packages for authentication, logging, ingress, service discovery"

VMware TechDocs – Authentication components (Pinniped, Dex), ingress controller (Contour), logging (Fluent Bit), service discovery (ExternalDNS) are explicitly listed as TKG packages

Explanation:

The application team is manually restarting containers after failures, which indicates their container environment lacks automated failure recovery. The solution is a container orchestration platform with built-in self-healing capabilities, and Kubernetes provides exactly this functionality.

Kubernetes is designed with native self-healing mechanisms that automatically handle container failures without manual intervention . The key features that solve this specific problem are:

Restart Policies:Kubernetes uses restartPolicy with options like Always (default) or OnFailure to automatically restart containers when they fail . When a container crashes or returns a non-zero exit code, the kubelet agent automatically restarts it according to the defined policy.

Liveness Probes: These periodic health checks test whether a container is still functioning properly. If a liveness probe fails, Kubernetes kills the container and restarts it based on the restart policy .

ReplicaSet Controller: If a Pod fails completely, the ReplicaSet automatically creates a replacement Pod to maintain the desired number of replicas .

Kubernetes follows a declarative model where administrators define the desired state (e.g., "5 replicas of this container should be running"), and Kubernetes continuously works to maintain that state by automatically replacing failed components .

Why other options are incorrect

B. VMware vSphere High Availability (HA) – Incorrect.
vSphere HA operates at the virtual machine level, not the container level. It restarts entire VMs on another ESXi host when a host fails, but it does not detect or restart individual failed containers within a VM. Additionally, vSphere HA requires a restart delay (VM boot time), whereas containers can restart in seconds .

C. VMware vSphere Fault Tolerance (FT) – Incorrect.
FT provides zero-downtime protection by maintaining a live shadow copy of an entire VM on a secondary host . It is designed for mission-critical VMs that cannot tolerate any downtime. FT operates at the VM level, not container level, and requires significant resources (double the CPU/memory). It does not address container failure recovery within a VM .

D. Prometheus – Incorrect.
Prometheus is a monitoring and alerting system that collects metrics and triggers alerts based on defined conditions . While Prometheus can be configured to send notifications when containers fail, it does not perform the action of restarting containers. Prometheus would need to be integrated with another system (like Kubernetes) to trigger recovery actions .

Reference

Kubernetes Official Documentation – "Self-Healing" – Kubernetes automatically restarts failed containers and replaces failed Pods

Pluralsight– "Building Self-Healing Containers in Kubernetes" – Using restart policies and liveness probes