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| Vendor: | VMware |
|---|---|
| Exam Code: | 3V0-42.23 |
| Exam Name: | VMware NSX 4.x Advanced Design |
| Exam Questions: | 51 |
| Last Updated: | October 26, 2025 |
| Related Certifications: | VMware Certified Advanced Professional, VCAP Network Virtualization Design |
| Exam Tags: | Advanced Level VMWare Network Virtualization Architects and Cloud Infrastructure Consultants |
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A Solutions Architect is helping an organization with the multi-location design of an NSX solution.
This information was gathered during a design workshop:
No Jumbo Frames allowed on the WAN
Simple DR solution with no fabric nor vCenter requirements
GDPR requirements (Management Plane distributed in each location)
What should the architect recommend be configured in the NSX environment?
NSX Multisite for Compliance & Distributed Management (Correct Answer - B):
NSX Multisite supports deployments without requiring centralized management (NSX Federation).
Since GDPR requires data locality, separate NSX Managers per site help comply with data protection laws.
No Jumbo Frames requirement indicates transport overlays are not required, making Multisite a better fit than NSX Federation.
Incorrect Options:
(A - NSX Federation):
Federation requires Global Manager, which is not needed for a simple DR solution.
(C - Active/Active Tier-0 Gateway):
Active/Active Tier-0 is a routing decision, not a multi-location design strategy.
(D - IPSec VPN):
IPSec VPN is not sufficient for multi-site management.
VMware NSX 4.x Reference:
NSX Multisite vs. Federation Architecture Guide
GDPR Compliance with NSX Multisite Best Practices
Which three of the following are components of switch fabric design? (Choose three.)
Spine-Leaf Architecture (Correct Answers - A, C, D):
Top-of-Rack (ToR) Switch: Connects ESXi hosts and NSX transport nodes within a rack.
Spine Switch: Acts as the core switch layer, interconnecting all leaf switches for high-performance network fabric.
Leaf Switch: Connects ToR switches and compute nodes to the spine layer, forming a scalable fabric.
Incorrect Options:
(B - Middle-of-Rack Switch):
This is not a standard networking design term.
(E - End-of-Rack Switch):
Similar to Top-of-Rack switches, but typically not used in modern Spine-Leaf designs.
VMware NSX 4.x Reference:
NSX-T Physical Networking Guide
NSX-T Spine-Leaf Fabric Architecture Best Practices
A Solutions Architect is designing an NSX solution for a customer. Which of the following would be an example of a logical design for this project?
A logical design defines the high-level structure and objectives of an NSX implementation without getting into the specifics of configuration details (which are part of the physical design).
Logical Design Includes:
Network Segmentation Strategy
Traffic Flow Considerations (East-West & North-South)
Security & Micro-Segmentation Policies
Integration with Physical and Cloud Networks
Incorrect Options:
(A - Instructions for Installation) This belongs to the implementation phase (not logical design).
(B - Interface Diagrams) These belong to the physical design.
(D - VLAN & IP Assignments) These are detailed configuration steps, not part of high-level design.
VMware NSX 4.x Reference:
VMware NSX-T Reference Design Guide
NSX-T Data Center Logical & Physical Design Considerations
Refer to the exhibit.

A financial company is adopting micro-services with the intent of simplifying network security. An NSX architect is proposing a NSX segmentation logical design. The architect
has created a diagram to share with the customer.
Which design choice provides less management overhead?
1. Understanding the Exhibit and NSX Security Segmentation
The diagram represents NSX-T logical segmentation for a microservices-based financial company.
It categorizes workloads into three distinct risk levels:
High Risk (Red)
Medium Risk (Yellow)
Low Risk (Blue)
The objective is to enforce security policies with minimal management overhead while maintaining isolation between risk levels.
2. Why 'One Security Policy Per Level of Security' is the Best Choice (B)
Grouping workloads based on security levels (High, Medium, Low) simplifies firewall rule management.
By defining a single security policy per level of security, it reduces the need to create multiple firewall rules for each microservice individually.
Advantages of this approach:
Scalability: New workloads can inherit existing security policies without manual rule creation.
Simplification: Instead of hundreds of firewall rules, a few policies handle traffic isolation effectively.
Automation-Friendly: Security policies can be applied dynamically using NSX-T security groups.
3. Why Other Options are Incorrect
(A - Create One Firewall Rule Per Application Tier)
High overhead and complexity: Each application has its own rule, making it harder to scale as the number of applications grows.
Requires continuous manual rule creation, increasing administrative burden.
Better suited for small, static environments but not scalable for microservices.
(C - Create One Firewall Rule Per Level of Security)
Firewall rules alone do not provide granular segmentation.
A single firewall rule is insufficient to define security controls across multiple application tiers.
Security policies provide a more structured approach, including Layer 7-based controls and dynamic membership.
(D - Create a Security Policy Based on IP Groups)
IP-based security policies are outdated and not scalable in a dynamic microservices environment.
NSX-T supports workload-based security policies instead of traditional IP-based segmentation.
Microservices often use dynamic IP addresses, making IP-based groups ineffective for security enforcement.
4. NSX Security Best Practices for Microservices-Based Designs
Use NSX Distributed Firewall (DFW) for Micro-Segmentation
Apply security at the workload (vNIC) level to prevent lateral movement of threats.
Enforce Zero Trust security model by restricting traffic between risk zones.
Group Workloads by Security Posture Instead of Static IPs
Leverage dynamic security groups (tags, VM attributes) instead of static IPs.
Assign security rules based on business logic (e.g., production vs. development, PCI-compliant workloads).
Use Security Policies Instead of Individual Firewall Rules
Policies provide abstraction, reducing the number of firewall rules.
Easier to manage and apply to multiple workloads dynamically.
Monitor and Automate Security Policies Using NSX Intelligence
Continuously analyze workload communication patterns using VMware Aria Operations for Networks (formerly vRealize Network Insight).
Automate rule updates based on detected traffic flows.
A customer has two sites and is looking to deploy NSX with stretched security. The customer wants to ensure that only authorized traffic can traverse the stretched security perimeter.
What is the VMware recommended approach for implementing micro-segmentation in this scenario?
Micro-Segmentation Across Stretched Security (Correct Answer - A):
NSX Distributed Firewall (DFW) enforces security at the workload level across both sites.
DFW provides East-West traffic control, preventing unauthorized lateral movement.
Enforcement remains consistent across sites, maintaining Zero Trust Security.
Incorrect Options:
(B - Service Composer Policies):
Service Composer is deprecated in NSX-T and not used for micro-segmentation.
(C - Identity Firewalling):
Identity-Based Firewall (IDFW) applies user-based security, not network segmentation.
(D - Group Firewall Policies):
Group-based policies work with DFW, but DFW is the primary enforcement mechanism.
VMware NSX 4.x Reference:
NSX-T Micro-Segmentation Security Best Practices
Distributed Firewall Design Guide for Stretched Security
Security & Privacy
Satisfied Customers
Committed Service
Money Back Guranteed