Free VMware 2V0-41.24 Practice Test Questions 2026

Explanation:

The VMware NSX portfolio is VMware's comprehensive software-defined networking and security solution for data centers and multi-cloud environments. The portfolio includes several core products that provide specific capabilities. Based on official VMware documentation and industry sources, two of the options listed are clear solutions within the NSX portfolio.

C. VMware NSX Advanced Load Balancer – Correct.
The NSX Advanced Load Balancer (formerly known as the Avi Networks Platform) is a core component of the VMware NSX portfolio. It provides a distributed application delivery controller (ADC) built for multi-cloud environments, offering software load balancing, intelligent web application firewall (WAF), advanced analytics, and monitoring capabilities . Its central control plane and distributed data plane deliver application services as a dynamic, multi-cloud fabric that can run on VMs, containers, or bare metal across any cloud environment . VMware officially lists NSX Advanced Load Balancer as part of its Virtual Cloud Network offerings alongside NSX Data Center .

D. VMware NSX Distributed IDS/IPS – Correct.
VMware NSX Distributed IDS/IPS (Intrusion Detection System/Intrusion Prevention System) is a native security capability within the NSX portfolio. It provides distributed intrusion detection and prevention at the hypervisor kernel level, enabling advanced filtering to be applied at every hop of an application . The distributed architecture helps eliminate blind spots created by traditional perimeter security products and allows security policies to be automatically generated and enforced on an application-specific basis . As documented in NSX feature guides, Distributed IDS/IPS is a key component of NSX Advanced Threat Prevention capabilities .

Why other options are incorrect:

A. VMware Tanzu Kubernetes Grid – Incorrect.
Tanzu Kubernetes Grid (TKG) is part of the VMware Tanzu portfolio, not the NSX portfolio. While NSX can integrate with and provide networking services for Tanzu Kubernetes Grid clusters, TKG itself is a separate product within VMware's modern application portfolio . The Tanzu portfolio focuses on Kubernetes management and container orchestration across multi-cloud environments, whereas NSX focuses on networking and security virtualization .

B. VMware Tanzu Kubernetes Cluster – Incorrect.
This is not a distinct product offering; rather, "Tanzu Kubernetes clusters" refer to the Kubernetes clusters that can be deployed and managed by Tanzu Kubernetes Grid or vSphere with Kubernetes. Like option A, this belongs to the VMware Tanzu portfolio, not NSX. Additionally, the phrasing "Tanzu Kubernetes Cluster" is imprecise as a product name—the actual platform is Tanzu Kubernetes Grid, which is used to create and manage Kubernetes clusters .

E. VMware Aria Automation – Incorrect.
VMware Aria Automation (formerly vRealize Automation) is part of the VMware Aria portfolio, which focuses on cloud management, automation, and infrastructure lifecycle management. While Aria Automation can integrate with and manage NSX components as part of a broader cloud management platform, it is not a solution within the NSX portfolio itself. The Aria portfolio also includes Aria Operations, Aria Operations for Logs, and Aria Operations for Networks . VMware documentation clearly distinguishes between NSX editions and Aria products as separate licensing and product families .

Reference

Broadcom TechDocs – NSX Editions: Lists NSX Distributed Firewall and Gateway Firewall capabilities, including IDS/IPS

VMware Announcement (VMworld 2019): Officially announced NSX Advanced Load Balancer as part of NSX portfolio

Explanation:

NSX supports three types of DHCP services that can be configured on segments to provide dynamic IP address assignment to workloads . These services differ in their scope and where the DHCP server resides.

A. Gateway DHCP – Correct.
Gateway DHCP server acts as a centralized DHCP service that dynamically assigns IP addresses to VMs on all segments connected to a Tier-0 or Tier-1 gateway that use this DHCP type . When a segment uses Gateway DHCP, the DHCP profile attached to the gateway is automatically selected and its server IP addresses are fetched automatically from that profile . Gateway DHCP is supported only for IPv4 subnets; Gateway DHCPv6 server is not supported .

B. Segment DHCP – Correct.
Segment DHCP server is a DHCP service local to a specific segment. It provides dynamic IP assignment only to the VMs attached to that segment . The DHCP server IP address must belong to the subnet configured on the segment and must be different from the gateway IP address . For isolated segments not connected to a gateway, Segment DHCP server is the only supported option . When a segment is connected to a gateway, Segment DHCP is selected by default .

C. DHCP Relay – Correct.
DHCP Relay forwards DHCP client requests to external DHCP servers located outside the NSX environment, such as in the physical network or another subnet . The DHCP Relay service is local to the segment and not available to other segments . When using DHCP Relay, you cannot configure DHCP settings, DHCP options, or static bindings on the segment . DHCP Relay is supported on VLAN segments through the service interface of a Tier-0 or Tier-1 gateway .

Why other options are incorrect:

D. Port DHCP per VNF – Incorrect.
This is not a supported DHCP service type in NSX. The official VMware documentation lists only three DHCP configuration types: Segment DHCP server, Gateway DHCP server, and DHCP Relay . There is no "Port DHCP per VNF" service option available.

E. VRF DHCP Server – Incorrect.
While VRF (Virtual Routing and Forwarding) gateways are supported in NSX for multi-tenancy , "VRF DHCP Server" is not a distinct DHCP service type. DHCP services on VRF gateways would fall under the same three categories (Segment DHCP, Gateway DHCP, or DHCP Relay) that apply to standard gateways.

Reference

Broadcom TechDocs – NSX DHCP:Lists the three supported DHCP configuration types as Segment DHCP server, Gateway DHCP server, and DHCP Relay

Broadcom TechDocs – NSX DHCP Configuration Settings: Provides detailed reference for configuring DHCP types, including when each type is supported or not supported

Explanation:

The get log-file syslog command is the correct NSX CLI command to display syslog messages directly on the NSX Manager appliance.

Why other options are incorrect:

A. show log manager follow – Incorrect.
According to exam discussion sources, show log manager follow is not a valid CLI command in NSX. There is no show log command or manager option in the NSX CLI. This appears to be a distractor option that resembles commands found in other network operating systems but does not exist in NSX.

B. get log-file auth.log – Incorrect.
While get log-file auth.log is a valid CLI command syntax, it displays the authorization log, not the syslog. The auth.log file contains authorization and authentication-related messages, not general system syslog messages. Although the command format is correct, the specific log file specified is wrong for viewing syslog.

D. /var/log/syslog/syslog.log – Incorrect.
This option is a file path, not a CLI command. While syslog messages on NSX appliances are located in /var/log/syslog, the question asks for a "CLI command" to show syslog, not a file path reference. Additionally, the exact path is /var/log/syslog, not /var/log/syslog/syslog.log. The latter is an incorrect or non-existent path on NSX Manager.

Reference

Broadcom TechDocs – "Log Messages and Error Codes": On NSX appliances, run get log-file syslog to view system logs

Broadcom Knowledge Base Article 425724 – "How to check the Log-file via NSX-CLI": Confirms the command syntax and notes the use of follow for live logs

Explanation:

When the NSX Manager UI is inaccessible, an administrator can generate a support bundle directly from the NSX Manager command line interface (CLI). The correct command for this operation is get support-bundle file, which collects system logs and configuration data into a single compressed file .

Why other options are incorrect:

A. esxcli system syslog config logger set --id=nsxmanager – Incorrect.
This command is used on ESXi hosts (not NSX Manager) to configure syslog logging parameters. It does not generate a support bundle. Additionally, --id=nsxmanager is not a valid logger ID in ESXi.

C. vm-support – Incorrect.
The vm-support command is used on ESXi hosts (not NSX Manager) to collect diagnostic bundles for VMware technical support . It is not a valid command on the NSX Manager appliance. The NSX Manager equivalent is get support-bundle.

D. set support-bundle file vcpnv.tgz – Incorrect.
The set command in NSX CLI is used to modify configurations (e.g., set napp kubeconfig for NSX Application Platform ). set support-bundle is not a valid NSX CLI command. The correct verb for generating a support bundle is get, not set.

Reference

Broadcom Knowledge Base Article 383034 – "How to collect a support bundle for NSX nodes via CLI": When the NSX UI is inaccessible, support bundles can be generated via CLI using get support-bundle file

Broadcom TechDocs – "Collect the NSX Application Platform Support Bundles Using the CLI": Confirms the get support-bundle file command syntax

Explanation:

Distributed Intrusion Detection System (IDS) in VMware NSX is a security feature that monitors network traffic for malicious activity by comparing it against a set of known signatures and behavioral patterns. It enables several practical security use cases beyond simple threat detection, including automated workload quarantine and vulnerability identification.

B. Quarantine workloads based on vulnerabilities. – Correct.
When IDS/IPS detects malicious activity or identifies a compromised workload, NSX can automatically assign a tag to the infected VM. This tagging enables administrators to define rules that automatically move such tagged guest VMs to a security group that quarantines the infected VM for additional scanning and isolation from the network until the infection is completely removed. This automated quarantine capability is a key operational use case of Distributed IDS, as it enables rapid threat containment without manual intervention.

E. Identify security vulnerabilities in the workloads. – Correct.
Distributed IDS analyzes network traffic patterns and compares them against signatures that correspond to known vulnerabilities and Common Vulnerabilities and Exposures (CVE) identifiers. When traffic matches a signature associated with a specific vulnerability, the system generates an alert that identifies which workload is affected and what vulnerability is being targeted. The blast radius analysis feature allows administrators to view exactly which communication paths have been affected by threats and identify compromised assets. This enables security teams to discover vulnerable workloads that may be targeted by attackers, even if the attack attempt itself is blocked.

Why other options are incorrect:

A. Use agentless antivirus with Guest Introspection. – Incorrect.
This describes Malware Prevention (also known as Endpoint Protection), not Distributed IDS. While both features use the Guest Introspection platform, agentless antivirus scanning is a separate capability where a Service Virtual Machine (SVM) monitors file access events on guest VMs. Distributed IDS focuses on network traffic pattern matching, not file-level antivirus scanning.

C. Identify risk and reputation of accessed websites. – Incorrect.
This describes URL Analysis (also known as FQDN Analysis), a separate NSX feature that scores and categorizes websites accessed by workloads to determine risk and reputation. Distributed IDS does not analyze website reputation; it focuses on signature-based intrusion detection and prevention at the network layer.

D. Gain Insight about micro-segmentation traffic flows. – Incorrect.
This describes Security Intelligence (formerly part of NSX Intelligence), which provides visualization of traffic flows and makes firewall rule recommendations for micro-segmentation planning. While Security Intelligence can display IDS/IPS events in its visualization canvas, its primary purpose is traffic flow analysis and policy recommendation, not intrusion detection itself.

Reference

Broadcom TechDocs – NSX IDS/IPS Overview: Confirms IDS/IPS monitors network traffic by comparing against signatures

Broadcom TechDocs – Endpoint Protection Use Case: Documents quarantine of infected VMs using tags and security groups

Explanation:

An IDS (Intrusion Detection System) signature is a specific pattern that the NSX system uses to identify malicious network activity. The official documentation clarifies two fundamental truths about these signatures.

B. An IDS signature contains data used to identify known exploits and vulnerabilities. – Correct.
An IDS signature specifies a pattern for a type of network intrusion that needs to be detected and reported. These patterns correspond to known attack sequences, exploits, and Common Vulnerabilities and Exposures (CVE) identifiers. The signature data is compared against network traffic, and when a match is found, the system takes a predefined action such as generating an alert or blocking the traffic. This knowledge-based approach relies on already known malicious instruction sequences to detect intrusion attempts.

E. An IDS signature contains a set of instructions that determine which traffic is analyzed. – Correct.
An IDS rule contains a set of instructions that determines exactly which traffic to analyze. These instructions specify elements such as source and destination addresses, services, IDS profiles, and which firewalls or groups the rule applies to. The instructions act as a filter for network traffic analysis, ensuring the system inspects only relevant traffic for matches against known signatures.

Why other options are incorrect:

A. Users can upload their own IDS signature definitions. – Incorrect.
Official Broadcom documentation for vDefend ATP (which represents current NSX functionality) explicitly states "Custom IDS signatures are not supported" in the support matrix. While some older third-party sources or specific versions may have supported custom signatures, the current VMware NSX/vDefend release documentation confirms this feature is not available. The question is referencing current NSX 4.x capabilities, where this statement is false.

C. An IDS signature contains data used to identify the creator of known exploits and vulnerabilities. – Incorrect.
IDS signatures contain patterns of network intrusion activity and exploit attempts, not information about who created the exploit. The signature data focuses on technical indicators such as byte sequences, protocol behaviors, or attack patterns, not attribution of the threat actor or creator.

D. IDS signatures can be High Risk, Suspicious, Low Risk and Trustworthy. – Incorrect.
The official NSX severity ratings for IDS signatures are Critical, High, Medium, and Low. "Trustworthy" and "Suspicious" are not standard severity categories in NSX signature classification. The documentation also introduces a separate "suspicious" level for behavior-based detection events, but this refers to detection methodology rather than a signature classification.

Reference

Broadcom TechDocs – IDS/IPS Support Matrix: Confirms custom IDS signatures are not supported in current vDefend/NSX versions

Broadcom TechDocs – Overview of IDS/IPS: Defines signatures as patterns for detecting network intrusions

Explanation:

When deploying an NSX Edge Transport Node, the Tunnel Endpoint (TEP) IP addresses can be assigned using either IP pools or static IP lists . These two methods are the standard options provided in the NSX Edge configuration interface for assigning TEP addresses .

A. Use an IP Pool – Correct.
An IP Pool is a predefined range of IP addresses managed by NSX that can be automatically assigned to Transport Nodes. Using an IP Pool simplifies management by allowing NSX to automatically allocate addresses from the pool to multiple Edge nodes, ensuring consistent and conflict-free IP assignment across the environment . This method is ideal when deploying multiple Edge nodes where you want NSX to handle address allocation automatically .

C. Use a Static IP List – Correct.
A Static IP List allows you to manually specify one or more specific IP addresses for the TEP interface on the Edge node . This method provides granular control over exactly which IP address each Edge node receives, which is useful in environments with strict IP address management requirements or when integrating with external systems that require predictable addressing.

Why other options are incorrect:

B. Use RADIUS – Incorrect.
RADIUS (Remote Authentication Dial-In User Service) is an authentication protocol used for network access control and user authentication, not for IP address assignment to TEP interfaces. RADIUS has no role in TEP configuration or NSX Transport Node deployment .

D. Use BootP – Incorrect.
BootP (Bootstrap Protocol) is an older network protocol used to assign IP addresses to diskless workstations. NSX does not support BootP for TEP IP assignment. The modern alternatives are DHCP or the NSX-native IP Pool and Static IP List methods .

E. Use a DHCP Server – Incorrect.
While DHCP is technically a valid method for IP assignment in some NSX configurations , the question asks specifically for options applicable when deploying an NSX Edge Transport Node. In the Edge node deployment workflow, the available UI options are explicitly "Use IP Pool" and "Use Static IP List" . DHCP assignment for TEPs is generally associated with ESXi host deployment profiles rather than Edge node deployment, and even there, many organizations migrate from DHCP to static pools for better IP management .

Reference

Broadcom TechDocs – Create an NSX Edge Transport Node (NSX 4.2) : Explicitly lists "Use IP Pool" and "Use Static IPv4 List" as the two IPv4 Assignment options for TEP configuration

Broadcom TechDocs – Create an IP Pool for Tunnel Endpoint IP Addresses : Documents that IP Pools can be used for TEP address assignment

Explanation:

The VMware NSX portfolio includes a comprehensive set of built-in RBAC roles that grant predefined permissions for different administrative functions. These roles range from full system access to specific operational scopes such as networking, security, or load balancing. According to official VMware documentation, NSX contains the following built-in roles: Auditor (A), Cloud Admin (CA), Cloud Operator (CO), Enterprise Admin (EA), GI Partner Administrator (GIPA), LB Admin (LBA), LB Operator (LBO), Network Admin (NA), Network Operator (NO), NETX Partner Administrator (NXPA), Security Admin (SA), Security Operator (SO), Support Bundle Collector (SBC), and VPN Admin (VPNA).

Why other options are incorrect:

C. Full Access – Incorrect.
This is a permission type, not a built-in role. In NSX, the four permission types are Full Access (FA), Execute (E), Read (R), and None. These define the level of privilege granted by a role.

D. Read – Incorrect.
Similar to "Full Access," this is a permission type, not a built-in role. "Auditor" is the role associated with Read permissions.

F. None – Incorrect.
This is a permission type indicating no access. It is not a built-in role that can be assigned to a user.

Reference

VMware NSX 4.2 Administration Guide – Role-Based Access Control:Lists all built-in roles and their associated permissions for networking and security objects.

Broadcom TechDocs – NSX 3.2 Administration Guide: Documents the complete set of built-in roles (Auditor, Enterprise Admin, Network Admin, LB Operator, etc.) and the four permission types.