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VMware vSphere 8.x Advanced Design Questions 26–30 (page: 7)

Updated On: 10-Feb-2026

An architect is reviewing the security and compliance requirements for a new application that will be hosted on a vSphere 8 environment.

The following information has been noted about the new application:

The application stores and processes confidential data

The supporting virtual infrastructure is shared with other departments

No other application stores or processes confidential data

The application virtual machines must be able to run on any ESXi host in the cluster

The storage layer is a iSCSI attached SAN

Data at Rest Encryption is in place for each presented LUN validated to FIPS 140-2

No budget is available for additional infrastructure components or software

Application data must not be accessible outside of the application's virtual machines

The architect has been tasked with providing a secure virtual machine design to host the application.

Which three design elements must the architect include to meet the requirements? (Choose three.)

  1. Virtual Machine Encryption
  2. The vSphere Native Key Provider
  3. A new encrypted iSCSI LUN
  4. External Key Management Service (KMS) provider
  5. A new local VMFS volume
  6. VMware vSAN

Answer(s): A,B,D

Explanation:

Virtual Machine Encryption

To ensure that the application's confidential data is protected, Virtual Machine Encryption should be applied. This will ensure that even if someone gains access to the storage layer or the underlying infrastructure, the data in the virtual machine is encrypted and cannot be accessed outside of the VM, as required by the security and compliance requirements.

The vSphere Native Key Provider

The vSphere Native Key Provider can be used to manage encryption keys within the vSphere environment. Since no budget is available for additional infrastructure components or software, leveraging vSphere's native capabilities for key management ensures that encryption is securely handled without introducing external dependencies. This also aligns with the requirement to not introduce additional infrastructure.

External Key Management Service (KMS) provider

While the vSphere Native Key Provider can manage keys within the environment, if there is a requirement for a more secure or compliant key management solution, an External Key Management Service (KMS) may be used. The KMS provider allows for centralized management of encryption keys, ensuring that the keys are securely stored and controlled according to compliance standards (e.g., FIPS 140-2). Although the Native Key Provider may suffice, this option ensures that key management adheres to stricter compliance needs, especially for confidential data.



An architect is creating a design for a new vSphere solution to meet the following business requirement:

REQ01 - Reduce operational expenditure

Which design decision could the architect include in the logical design to satisfy this requirement?

  1. Use vSphere Standard licenses on all clusters.
  2. Use heterogeneous hardware for the hosts in all clusters.
  3. Use vSphere Lifecycle Manager on all clusters.
  4. Use an N + 1 design to define the required capacity on all clusters.

Answer(s): C

Explanation:

vSphere Lifecycle Manager helps reduce operational expenditure (OPEX) by automating the patching and management of the vSphere environment. It provides centralized management for host updates, ensuring consistency across the environment and reducing the manual effort required for ongoing operations. This leads to reduced operational overhead, which directly addresses the requirement to reduce OPEX.



An architect is tasked with devising a vSphere design strategy that will allow the company to quickly scale global data center functionality when a new location is identified.

The following requirements must be met:

The solution must include VMware licensing costs.

The design must keep data locally to each specific location.

The design must utilize current company processes around vSphere.

Any new global location must be functional within one month of identification.

Which design strategy will meet these requirements?

  1. Plan specific locations throughout the world and build data centers in anticipation of the scale events.
  2. Purchase new hardware and deploy VMware Cloud Foundation when a new location is identified.
  3. Select partners in each identified location in anticipation of the scale events.
  4. Locate a partner that has a data center presence in major global locations that can deploy compatible company architecture.

Answer(s): D

Explanation:

This strategy meets the requirements because:

Keeps data locally: By selecting a partner with a global data center presence, data can remain local to each specific location, meeting the geographical data residency requirement.

Quick scalability: The partner already has data centers in place, enabling the company to scale quickly and be functional within one month, which meets the timeline requirement.

Utilizes current processes: The existing processes around vSphere can still be leveraged since the partner can deploy compatible company architecture that aligns with the company's current infrastructure and processes.

VMware licensing costs: VMware licenses would be managed as part of the partnership arrangement, ensuring costs are aligned with the company's existing VMware infrastructure.



An architect is designing a new vSphere-based solution for a customer.

During a requirement gathering workshop, the following information is provided:

The solution must have a primary and secondary site.

The solution must support a maximum of 1,000 concurrent workloads.

The profile of the workloads are as follows:

- Production Workloads

-- 300 x Small: 1 vCPU, 2 GB RAM

-- 400 x Medium: 2 vCPU, 6 GB RAM

-- 100 x Large: 4 vCPU, 8 GB RAM

- Development Workloads

-- 200 x Small: 1 vCPU, 2 GB RAM

The corporate security policy states that, during normal operations, production workloads must be physically segregated from development workloads.

All production workloads are split evenly across the primary and secondary site.

All development workloads run only within the secondary site.

In the event of a disaster affecting workloads in the primary site, the secondary site must be capable of running all production and development workloads.

The vCPU to physical core ratio should be a maximum of 10:1 for production workloads and 20:1 for development workloads.

The solution should provide a minimum of N + 1 resiliency at each component level.

The target physical host hardware platform has already been defined by the company's hardware standards and therefore each host has the following configuration:

-- 2 x 24 physical cores

-- 768 GB RAM

-- 2 x 100 GB SSD drives

-- 6 x 10 GbE network cards

What is the minimum number of hosts required to meet the requirements?

  1. 12
  2. 14
  3. 8
  4. 10

Answer(s): A

Explanation:

1. Production Workloads:

300 x Small: 1 vCPU, 2 GB RAM

400 x Medium: 2 vCPU, 6 GB RAM

100 x Large: 4 vCPU, 8 GB RAM

Total vCPUs required for production:

Small: 300 x 1 = 300 vCPUs

Medium: 400 x 2 = 800 vCPUs

Large: 100 x 4 = 400 vCPUs

Total production vCPUs = 300 + 800 + 400 = 1,500 vCPUs

2. Development Workloads:

200 x Small: 1 vCPU, 2 GB RAM

Total vCPUs required for development:

Small: 200 x 1 = 200 vCPUs

3. Workload Distribution:

Production workloads are split evenly across the primary and secondary site: 750 vCPUs per site

(1,500/2).

All development workloads run in the secondary site: 200 vCPUs.

4. vCPU to Physical Core Ratio:

Production workloads: 10:1 ratio (vCPU to core ratio).

Development workloads: 20:1 ratio (vCPU to core ratio).

5. Hosts Configuration:

Each host has 24 physical cores and 768 GB of RAM.

Since the maximum vCPU-to-core ratio for production is 10:1, each host can support 240 vCPUs (24

cores x 10).

For development, with a ratio of 20:1, each host can support 480 vCPUs (24 cores x 20).

6. Host Calculation:

Production Workloads (750 vCPUs per site):

750 vCPUs for production divided by 240 vCPUs per host = 3.125 hosts (rounding up = 4 hosts per site for production).

Development Workloads (200 vCPUs):

200 vCPUs divided by 480 vCPUs per host = 0.416 hosts (rounding up = 1 host for development).

7. Resiliency:

N + 1 resiliency means we need one extra host per site to provide redundancy.

8. Total Hosts:

4 hosts for production in the primary site.

4 hosts for production in the secondary site.

1 host for development in the secondary site.

1 additional host for N + 1 resiliency in both sites.

Total hosts required = 4 (primary production) + 4 (secondary production) + 1 (secondary development) + 2 (N + 1) = 12 hosts.



What are two benefits of the VMware Validated Solutions? (Choose two.)

  1. Provide prescriptive runbooks to deploy VMware solutions
  2. Provide comprehensive manual deployment guidance and day 2 operational practices
  3. Provide best practice design guidance
  4. Provide faster time to value for VMware Cloud Foundation
  5. Deploy technical validated implementations on VMware Cloud Foundation

Answer(s): A,C

Explanation:

VMware Validated Solutions offer prescriptive, step-by-step runbooks that help guide users through the deployment process. These runbooks ensure that the implementation follows VMware's recommended practices, reducing complexity and ensuring consistency across deployments.

VMware Validated Solutions are designed based on VMware's best practices, ensuring that the deployed solution is optimized for performance, security, and scalability. This helps organizations achieve a reliable and efficient infrastructure aligned with VMware's recommended guidelines.



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