Free 2V0-33.22PSE Practice Test Questions 2026

Explanation:

To ensure I/O-intensive workloads run optimally in a VMware Cloud environment, the administrator should focus on reducing CPU overhead and increasing storage throughput. The two steps that directly achieve this are ensuring a modern virtual hardware version and configuring the Paravirtual SCSI (PVSCSI) adapter.

A. Ensure that the VMware hardware version is 7 or later
– The PVSCSI adapter, which is critical for I/O-intensive workloads, requires virtual hardware version 7 or later to function . Without this baseline, the performance-optimized storage adapter cannot be utilized. Newer hardware versions also include general performance improvements and support for the latest virtualization features.

D. Configure the VMware Paravirtual SCSI (PVSCSI) adapter
– The PVSCSI adapter is a high-performance storage controller specifically designed for I/O-intensive environments . It offers a significant reduction in CPU utilization and potentially increased throughput compared to default storage adapters like LSI Logic Parallel or LSI Logic SAS . VMware documentation explicitly states that PVSCSI "is thus the best choice for environments with very I/O-intensive guest applications" .

Why other options are incorrect

B. Enable the memory hot-add feature
– Memory hot-add is useful for reducing downtime when adding memory to a running VM, but it does not improve I/O performance. In fact, enabling hot-add can sometimes have negative performance implications because it changes memory allocation patterns and may prevent certain memory optimizations.

C. Configure the LSI Logic Parallel SCSI controller
– This is the default storage adapter for many guest operating systems, but it is not optimized for high I/O workloads . The LSI Logic Parallel controller consumes more CPU per I/O operation and provides lower throughput compared to PVSCSI, making it the wrong choice for I/O-intensive applications.

E. Configure a maximum of two CPU cores per socket
– This setting affects NUMA (Non-Uniform Memory Access) behavior and licensing but has no direct impact on I/O performance. CPU core-per-socket configuration is related to application licensing constraints and memory locality, not storage or I/O throughput optimization.

Reference

Broadcom TechDocs – "Guest Operating System Storage Considerations": The PVSCSI adapter offers a significant reduction in CPU utilization as well as potentially increased throughput compared to the default virtual storage adapters, and is thus the best choice for environments with very I/O-intensive guest applications

Broadcom TechDocs – "Guest Operating System Storage Considerations": In order to use PVSCSI, your virtual machine must be using virtual hardware version 7 or later

Explanation:

The customer is experiencing performance issues with application replication that consumes 3.8 Gbps of bandwidth over an IPSec VPN connection. This bandwidth usage is approaching the practical throughput limits of standard IPSec VPN connections, which typically max out around 4–5 Gbps depending on the environment and encryption overhead .

B. Deploy AWS Direct Connect
– This is the correct solution because AWS Direct Connect provides a dedicated, high-bandwidth, low-latency private connection (ranging from 1 Gbps to 400 Gbps) between the on-premises data center and AWS . Direct Connect offers several advantages that directly address the performance issue:

Higher throughput capacity: Direct Connect can easily handle 3.8 Gbps and scale significantly higher compared to IPSec VPN limitations

Lower latency: The dedicated connection bypasses the public internet, reducing latency for replication traffic

Reduced jitter: Provides consistent, predictable performance essential for application replication

No encryption overhead:Unlike IPSec VPN, Direct Connect traffic is not encrypted (can be encrypted with VPN over DX if needed), eliminating the CPU overhead associated with VPN encryption/decryption

Why other options are incorrect

A. Deploy VMware HCX
– VMware HCX is a workload mobility and migration solution that facilitates VM migration, network extension, and disaster recovery . While HCX can use various transport mechanisms, it does not inherently increase bandwidth between the SDDC and on-premises data center. HCX operates over the existing connectivity (whether VPN or Direct Connect) and would not resolve the 3.8 Gbps throughput limitation imposed by the underlying VPN connection.

C. Deploy a Layer 2 VPN connection
– A Layer 2 VPN extends layer 2 networks (same IP subnet) across sites to enable workload mobility and VM migration . Like HCX, L2 VPN operates over the underlying IP network and does not increase available bandwidth. Additionally, VMware Cloud on AWS supports only a single L2VPN tunnel per SDDC, making it unsuitable for general replication traffic throughput improvement.

D. Contact VMware support to request more bandwidth for IPSec VPN connection
– The bandwidth limitation is not a support-configurable parameter. IPSec VPN throughput is constrained by the underlying internet connection, the VPN gateway hardware, and the ECMP load-balancing algorithm (which uses only source/destination IP 2-tuple, preventing linear bandwidth scaling with additional tunnels) . Even with ECMP enabled across multiple VPN tunnels, the algorithm does not scale linearly, and adding more tunnels does not guarantee increased bandwidth for single high-volume replication flows .

Reference

AWS News Feed – "Accelerate Your VMware Migration to AWS": Direct Connect offers dedicated high-performance connectivity (1-400 Gbps) ideal for large-scale data transfer

Broadcom TechDocs – "Connecting Your On-Premises SDDC to Remote Networks": AWS Direct Connect provides high-speed, low-latency connection; VPN bandwidth limitations discussed

Explanation

Digital transformation is the overarching strategic driver behind the multi-cloud journey. While the other options represent tactical benefits or enabling factors, digital transformation is the fundamental business motivation that pushes organizations toward multi-cloud adoption

Why other options are incorrect

A. Facilitate disaster recovery
– Disaster recovery (DR) is a valid use case for multi-cloud, not a strategic driver . Organizations may use multi-cloud for active-active DR across providers, but this is a tactical outcome rather than the fundamental business driver.

B. Application modernization
– Application modernization (refactoring monoliths to microservices, adopting containers, etc.) can be accelerated by multi-cloud but is itself a means to achieve digital transformation, not the root driver . Organizations modernize applications to enable digital business capabilities.

D. Cost savings
– Cost savings are often cited as a benefit of cloud adoption, but multi-cloud rarely reduces costs and frequently increases them due to data egress fees, operational complexity, and specialized skill requirements . A Flexera 2022 survey found that 71% of organizations report multi-cloud increases operational costs. Cost savings is therefore not a key driver; digital transformation goals justify the additional expense.

Reference

Gartner Report – "The Future of Cloud Is Multicloud" (2021): "Digital transformation initiatives are the primary driver for multi-cloud adoption, outpacing cost optimization as the leading motivation"

VMware 2021 State of Multicloud Report:89% of surveyed organizations cited digital transformation as the main reason for multi-cloud strategy

Explanation:

The customer's primary business requirement is consumption-based ransomware protection with long-term immutable point-in-time recovery options. VMware Cloud Disaster Recovery (now part of VMware Live Cyber Recovery) is explicitly designed for this use case .

C. VMware Cloud Disaster Recovery
– This SaaS-based disaster recovery service offers several features that directly address the customer's ransomware protection requirements:

Immutable, air-gapped recovery points – Snapshots are stored in a secure, VMware-managed Cloud File System that preserves data integrity at the time of recovery. This provides true immutability, meaning ransomware cannot encrypt or delete historical recovery points

Long-term retention – The service stores a deep history of immutable snapshots in an isolated, offsite, encrypted cloud file system with daily data integrity checks

Consumption-based pricing – Operates on a pay-as-you-use cloud economic model, aligning with the customer's requirement for consumption-based ransomware protection

VMware-managed isolation– The recovery environment is built and managed by VMware, eliminating the operational burden on the customer

Why other options are incorrect

A. VMware vSphere Replication
– While vSphere Replication does support Multiple Point in Time (MPIT) instances (up to 200 instances with Advanced Cyber Compliance subscription), it is primarily an on-premises replication tool . It does not offer the immutable, cloud-based, air-gapped storage that ransomware recovery requires. Additionally, vSphere Replication replicates all aspects of the virtual machine including potential viruses, offering no built-in ransomware detection or clean room recovery .

B. VMware Site Recovery
– This refers to VMware Site Recovery Manager (SRM), which orchestrates disaster recovery between on-premises sites or to the cloud. SRM itself does not provide immutable point-in-time snapshots or ransomware-specific protection workflows . It can work alongside VMware Cloud Disaster Recovery for hybrid protection strategies, but is not the solution for cloud-based immutable recovery .

D. VMware vSphere Data Protection
– This product has been discontinued and is no longer available. VMware announced the end of availability for vSphere Data Protection (VDP) effective December 31, 2018, and end of life on March 12, 2020. It is not a valid option for any current VMware solution.

Reference

VMware Official Product Page – VMware Live Recovery: "Immutable, Air-Gapped Recovery Points – Store snapshots in a secure, VMware-managed Cloud File System"

VMware TechDocs – VMware Live Cyber Recovery: Isolated recovery environment for controlled ransomware recovery

Explanation:

In VMware Cloud on AWS, the underlying Software-Defined Data Center (SDDC) network architecture is driven by VMware NSX. The logical routing topology uses a multi-tier gateway structure designed specifically for public cloud resource isolation and multi-tenancy.

A is correct (Distributed Tier-1):
In the NSX architecture, Tier-1 gateways leverage a distributed routing component (DR) that runs across all ESXi hosts within the cluster. This allows for optimized, localized east-west routing between logical switch segments without hair-pinning traffic back up to a centralized edge appliance.

B is correct (Standard Tier-1):
Under the hood, custom or user-defined Tier-1 logical routers can be added to the infrastructure as Standard Tier-1 gateways. These can be instantiated for specific tenants or workload zones to offer tailored isolation, unique routing paths, or localized services.

D is correct (Compute Tier-1):
Also known as the Compute Gateway (CGW), this is a default, specialized Tier-1 gateway instantiated inside every VMC on AWS SDDC. It manages and secures all northbound/southbound and public internet traffic destined for the actual user compute workloads and logical application segments.

Why the Other Options are Incorrect

C is incorrect (Tire-0):
Apart from the typographical spelling error ("Tire"), Tier-0 routers exist within the platform's multi-tier infrastructure, but they are fully managed at the VMware operator layer to interface with the AWS infrastructure. They are not configurable or interacted with as separate distinct options within the standard customer administration views.

E & F are incorrect (Management Tire-1 / Management Tire-0):
These choices feature spelling errors and describe invalid architecture states. The management segment uses a dedicated Management Gateway (MGW), which functions as a Tier-1 edge router to protect vCenter and NSX Manager infrastructure components. There is no concept of a separate "Management Tier-0" or a customer-exposed "Management Tier-1" standalone category.

References

VMware Cloud on AWS Networking and Security Guide:Understanding Multi-Tier Gateway Routing (Management Gateway vs. Compute Gateway architectures).

Broadcom TechDocs / VMware Cloud on AWS: Add a Custom Tier-1 Gateway to an SDDC configuration ruleset.

Explanation:

To allow public internet HTTPS access to a specific VM in VMware Cloud on AWS, you must complete two mandatory steps that work together:

D. Request a public IP address in the VMware Cloud console.
You cannot make a VM reachable from the internet without first obtaining a public IP address for it. VMware Cloud on AWS provisions these addresses from AWS's pool . You can request them by navigating to the "Networking & Security" section of the VMC console and clicking "Request New IP" . Each requested public IP is allocated to your SDDC to be used in a translation rule.

E. Configure a DNAT rule translating a public IP address to an internal IP address.
A Destination NAT (DNAT) rule maps the public IP address (destination) you requested to the VM's private internal IP address . This rule tells the NSX gateway: "When traffic arrives on this public IP and port 443, forward it to the specific VM at its private IP" . This step is essential for inbound connections from the internet. You can create this NAT rule in the same "Networking & Security" tab where you requested the public IP .

Why other options are incorrect

A. Create a custom service called HTTPS using port 443 – Incorrect.
HTTPS is a standard, predefined service in VMware Cloud on AWS . Creating a custom service is unnecessary because NSX already recognizes TCP port 443 as the HTTPS service.

B. Configure AWS Direct Connect – Incorrect.
Direct Connect is a private, high-bandwidth connection between an on-premises data center and AWS. It does not enable public internet access to a VM.

C. Configure a SNAT rule – Incorrect.
Source NAT (SNAT) translates a private source IP to a public IP for outbound traffic (VMs initiating connections to the internet) . The question requires inbound HTTPS access from the internet to the VM, which requires DNAT, not SNAT.

References

Broadcom TechDocs: "Request or Release a Public IP Address" – Confirms you request public IPs from the VMC console for workload VMs

VMware Official Blog: "Internet Access and Design Deep Dive" – Outlines the three-step process: 1) Request Public IPs, 2) Allocate Public IPs to Private IPs (NAT), 3) Create firewall rule

Explanation

The .vmdk file (Virtual Machine Disk file) is directly preventing the administrator from increasing the disk size in this scenario. When a VM has an active snapshot, you are not writing to the base .vmdk file, but to delta disk files (e.g., vmname-000001.vmdk) that record all changes made after the snapshot was taken. The base .vmdk file is "frozen" in time and cannot be modified as long as delta files are associated with the snapshot. Attempting to expand a virtual disk while snapshots exist would require reorganizing snapshot files and modifying captured state data, which is technically close to impossible. VMware Cloud Director documentation explicitly states that if a VM has a snapshot, you must remove it before making changes to the hard disk size.

Why other options are incorrect

A. The .nvram file
– This file contains the VM's BIOS or EFI firmware settings, including boot order and hardware configuration. It does not affect or prevent disk resizing operations.

B. The .vmtx file
– This is a configuration file that describes the VM's hardware settings but contains no virtual disk data. It does not typically prevent disk resizing.

D. The .vmsn file
– This file saves the VM's state (RAM, CPU state) at the moment a snapshot was taken. While its presence indicates snapshots exist, it is the .vmdk file (specifically the base disk locked by delta files) that directly prevents the resize operation.

References

ExamTopics 2V0-33.22 discussion – Community consensus on .vmdk as correct answer

Apache Wiki documentation– Demonstrates delta .vmdk files created from snapshots blocking disk modifications

Explanation:

When you require high local storage capacity and additional CPU cores for workloads in VMware Cloud on AWS, the i3en.metal instance type is the correct choice .

Why other options are incorrect
A. ve-standard-72 – Incorrect.
This appears to be a fabricated distractor. VMware Cloud on AWS host types are based on AWS bare metal instances (i3, i3en, i4i, m7i) . "ve-standard-72" is not a valid instance type in this service.

C. i3.metal – Incorrect.
This is the previous generation host. It is still available and provides lower specifications (less cores, less storage) compared to the i3en.metal, making it the incorrect choice when the specific requirement is high cores and high local storage .

D. AV36 – Incorrect.
The AV36, AV52, and AV64 host types are specific to Azure VMware Solution, not VMware Cloud on AWS . This is a distractor referencing a different cloud service entirely.

References

StorageReview News: "i3en.metal...Each host offers more compute, up to 48 physical CPU cores... and up to 768 GiB RAM"

VMware Japan Blog: Detailed comparison showing i3en.metal uses 4 Disk Groups vs 2 in i3.metal

Explanation

Port mirroring is the correct tool when an administrator needs to forward all monitored traffic to a network appliance for analysis and remediation. According to VMware documentation, port mirroring is explicitly used in the following scenarios:

Compliance and monitoring: Forward all of the monitored traffic to a network appliance for analysis and remediation

Troubleshooting: Analyze traffic to detect intrusion and diagnose errors on a network

Security inspection: Copy traffic to an advanced firewall (IPS/IDS) to inspect traffic

Port mirroring replicates and redirects all traffic from a source (VM, segment, or port) and sends it encapsulated within a GRE tunnel to a destination collector . This preserves original packet information while traversing the network to a remote appliance for deep packet inspection, intrusion detection, or compliance monitoring.

Why other options are incorrect

A. vRealize Log Insight
– This is a log aggregation and management tool, not a traffic forwarding tool. It collects logs, events, and syslog data, but it does not mirror or forward live network traffic packets to appliances for analysis .

B. Traceflow
– This is a diagnostic tool used for path verification and troubleshooting specific traffic flows. It sends test packets to verify connectivity and inspect dropped packets, but it does not continuously forward all monitored traffic to an external appliance .

D. IPFIX
– While IPFIX exports flow metadata (who talked to whom, protocols, byte counts), it does not forward the actual raw traffic packets. It sends summarized flow records, not the full packet payload needed for deep inspection or remediation by a network appliance .

References

Broadcom TechDocs – Configure Port Mirroring: "Compliance and monitoring: Forward all of the monitored traffic to a network appliance for analysis and remediation"

Packt VMware Cloud on AWS Blueprint: Port mirroring scenarios include copying traffic to advanced firewall (IPS/IDS) and troubleshooting

Explanation:

In a VMware Cloud Software-Defined Data Center (SDDC), administrators can configure three main types of compute network segments: Routed, Extended, and Dispatched/Disconnected.

D is correct (Disconnected):
A disconnected network segment has explicitly no uplink to the Tier-1 or Tier-0 logical gateways. Because it lacks an uplink, it functions as a completely isolated Layer 2 broadcast domain. Virtual machines attached to this segment can communicate exclusively with one another but have no access to external networks, other SDDC segments, or the public internet. This makes it the ideal, safe sandbox environment for disaster recovery (DR) testing, allowing you to power up cloned VMs without causing IP conflicts, routing overlap, or accidental live production communication.

Why the Other Options are Incorrect

A is incorrect (Private):
"Private" is not a formal network segment type defined within the VMware Cloud NSX manager interface. While it describes a security posture, it is not a configurable option.

B is incorrect (Routed):
A routed network segment is connected natively to the Tier-1 Compute Gateway (CGW). It automatically advertises its subnet paths to other internal networks and can communicate externally through the SDDC firewalls. Testing a disaster recovery scenario here would risk severe IP address conflicts with your on-premises production network.

C is incorrect (Extended):
An extended network segment requires an Layer 2 VPN (L2VPN) tunnel to span a single broadcast domain directly between your on-premises data center and the cloud SDDC. This stretches your live network, which is the exact opposite of isolation.

References

VMware Cloud on AWS Networking and Security Guide: Creating and Managing Network Segments (Routed vs. Extended vs. Disconnected).

Broadcom TechDocs / VMware Cloud on Dell: Understanding Disconnected Segment Behaviors for Isolated Test Topologies.

Explanation:

A vSphere distributed switch (vDS) functions as a single virtual switch that spans multiple ESXi hosts, and it is centrally managed by vCenter Server. This is its defining characteristic.

Why other options are incorrect

A. A distributed switch is a virtual switch that is configured for a single ESXi host
– Incorrect. This describes a vSphere standard switch (vSS) , not a distributed switch. A standard switch is configured on and confined to a single ESXi host. A distributed switch, by contrast, spans multiple hosts.

B. A standard switch is different from a distributed switch in that standard switches contain VMkernel ports
– Incorrect. Both standard switches and distributed switches can contain VMkernel ports. VMkernel ports are used for system traffic such as vMotion, management, vSAN, and NFS. This is not a differentiating factor between switch types.

C. Each ESXi host can have only one distributed switch configured at any time
– Incorrect. An ESXi host can be attached to multiple distributed switches simultaneously. For example, a host could have one distributed switch for management traffic and another for production VM traffic. There is no enforced limit of one per host.

References

VMware Docs – vSphere Networking Guide: "A distributed switch is managed by vCenter Server for all ESXi hosts associated with the distributed switch."

VMware Docs – Differences Between Standard and Distributed Switches: Highlights centralized management as the key differentiator.

Explanation:

Incident management in VMware Cloud on AWS follows ITIL-aligned processes where VMware manages incidents affecting the SDDC infrastructure. According to the service management model, two specific services are included:

B. Return to service
– This is a core incident management service focused on restoring normal operations after an incident has occurred. VMware assists with troubleshooting, implementing workarounds, or restoring affected systems to ensure successful return to service .

C. Severity classification
– This service categorizes incidents based on their urgency and potential impact. Severity classification allows VMware to prioritize and address critical issues promptly, ensuring appropriate response times based on business impact .

These services fall under VMware's responsibility because incidents affecting the underlying SDDC infrastructure (host failures, connectivity issues, etc.) are managed by VMware, while customer-managed incidents (workload OS issues) are handled separately.

Why other options are incorrect

A. VMware Tools management– Incorrect.
VMware Tools management is typically the customer's responsibility for guest OS optimization and is not an incident management service included in VMware's service management process .

D. Capacity management – Incorrect.
Capacity management is a separate operational process focused on resource planning, forecasting, and optimization. While VMware performs capacity management behind the scenes , it is not an incident management service. Capacity management belongs to service operations and planning functions.

E. Workload OS management – Incorrect.
Management of guest operating systems, applications, and workloads is explicitly the customer's responsibility in the shared responsibility model . VMware does not provide incident management services for customer-managed workload OS issues.

References

ExamTopics 2V0-33.22 Discussion – Confirms B and C as the correct answers with detailed explanation of incident management services

AWS Prescriptive Guidance – Shared responsibility model clarifies VMware manages infrastructure incidents while customers manage workloads and guest OS