VMware 2V0-41.23 VMware NSX 4.x Professional Online Training
VMware 2V0-41.23 Online Training
The questions for 2V0-41.23 were last updated at Apr 27,2024.
- Exam Code: 2V0-41.23
- Exam Name: VMware NSX 4.x Professional
- Certification Provider: VMware
- Latest update: Apr 27,2024
Question #1
Refer to the exhibit.
An administrator would like to change the private IP address of the NAT VM I72.l6.101.il to a public address of 80.80.80.1 as the packets leave the NAT-Segment network.
Which type of NAT solution should be implemented to achieve this?
- A . DNAT
- B . SNAT
- C . Reflexive NAT
- D . NAT64
Correct Answer: B
B
Explanation:
SNAT stands for Source Network Address Translation. It is a type of NAT that translates the source IP
address of outgoing packets from a private address to a public address. SNAT is used to allow hosts in a private network to access the internet or other public networks1
In the exhibit, the administrator wants to change the private IP address of the NAT VM 172.16.101.11 to a public address of 80.80.80.1 as the packets leave the NAT-Segment network. This is an example of SNAT, as the source IP address is modified before the packets are sent to an external network. According to the VMware NSX 4.x Professional Exam Guide, SNAT is one of the topics covered in the exam objectives2
To learn more about SNAT and how to configure it in VMware NSX, you can refer to the following resources:
VMware NSX Documentation: NAT 3
VMware NSX 4.x Professional: NAT Configuration 4
VMware NSX 4.x Professional: NAT Troubleshooting 5
https://docs.vmware.com/en/VMware-NSX-T-Data-Center/3.2/administration/GUID-7AD2C384-4303-4D6C-A44A-DEF45AA18A92.html
B
Explanation:
SNAT stands for Source Network Address Translation. It is a type of NAT that translates the source IP
address of outgoing packets from a private address to a public address. SNAT is used to allow hosts in a private network to access the internet or other public networks1
In the exhibit, the administrator wants to change the private IP address of the NAT VM 172.16.101.11 to a public address of 80.80.80.1 as the packets leave the NAT-Segment network. This is an example of SNAT, as the source IP address is modified before the packets are sent to an external network. According to the VMware NSX 4.x Professional Exam Guide, SNAT is one of the topics covered in the exam objectives2
To learn more about SNAT and how to configure it in VMware NSX, you can refer to the following resources:
VMware NSX Documentation: NAT 3
VMware NSX 4.x Professional: NAT Configuration 4
VMware NSX 4.x Professional: NAT Troubleshooting 5
https://docs.vmware.com/en/VMware-NSX-T-Data-Center/3.2/administration/GUID-7AD2C384-4303-4D6C-A44A-DEF45AA18A92.html
Question #2
Which two choices are solutions offered by the VMware NSX portfolio? (Choose two.)
- A . VMware Tanzu Kubernetes Grid
- B . VMware Tanzu Kubernetes Cluster
- C . VMware NSX Advanced Load Balancer
- D . VMware NSX Distributed IDS/IPS
- E . VMware Aria Automation
Correct Answer: C, D
C, D
Explanation:
VMware NSX is a portfolio of networking and security solutions that enables consistent policy, operations, and automation across multiple cloud environments1
The VMware NSX portfolio includes the following solutions:
– VMware NSX Data Center: A platform for data center network virtualization and security that delivers a complete L2-L7 networking stack and overlay services for any workload1
– VMware NSX Cloud: A service that extends consistent networking and security to public clouds such as AWS and Azure1
– VMware NSX Advanced Load Balancer: A solution that provides load balancing, web application firewall, analytics, and monitoring for applications across any cloud12
– VMware NSX Distributed IDS/IPS: A feature that provides distributed intrusion detection and prevention for workloads across any cloud12
– VMware NSX Intelligence: A service that provides planning, observability, and intelligence for network and micro-segmentation1
– VMware NSX Federation: A capability that enables multi-site networking and security management with consistent policy and operational state synchronization1
– VMware NSX Service Mesh: A service that connects, secures, and monitors microservices across multiple clusters and clouds1
– VMware NSX for Horizon: A solution that delivers secure desktops and applications across any device, location, or network1
– VMware NSX for vSphere: A solution that provides network agility and security for vSphere environments with a built-in console in vCenter1
– VMware NSX-T Data Center: A platform for cloud-native applications that supports containers, Kubernetes, bare metal hosts, and multi-hypervisor environments1
VMware Tanzu Kubernetes Grid and VMware Tanzu Kubernetes Cluster are not part of the VMware NSX portfolio. They are solutions for running Kubernetes clusters on any cloud3
VMware Aria Automation is not a real product name. It is a fictional name that does not exist in the VMware portfolio.
https://blogs.vmware.com/networkvirtualization/2020/01/nsx-hero.html/
C, D
Explanation:
VMware NSX is a portfolio of networking and security solutions that enables consistent policy, operations, and automation across multiple cloud environments1
The VMware NSX portfolio includes the following solutions:
– VMware NSX Data Center: A platform for data center network virtualization and security that delivers a complete L2-L7 networking stack and overlay services for any workload1
– VMware NSX Cloud: A service that extends consistent networking and security to public clouds such as AWS and Azure1
– VMware NSX Advanced Load Balancer: A solution that provides load balancing, web application firewall, analytics, and monitoring for applications across any cloud12
– VMware NSX Distributed IDS/IPS: A feature that provides distributed intrusion detection and prevention for workloads across any cloud12
– VMware NSX Intelligence: A service that provides planning, observability, and intelligence for network and micro-segmentation1
– VMware NSX Federation: A capability that enables multi-site networking and security management with consistent policy and operational state synchronization1
– VMware NSX Service Mesh: A service that connects, secures, and monitors microservices across multiple clusters and clouds1
– VMware NSX for Horizon: A solution that delivers secure desktops and applications across any device, location, or network1
– VMware NSX for vSphere: A solution that provides network agility and security for vSphere environments with a built-in console in vCenter1
– VMware NSX-T Data Center: A platform for cloud-native applications that supports containers, Kubernetes, bare metal hosts, and multi-hypervisor environments1
VMware Tanzu Kubernetes Grid and VMware Tanzu Kubernetes Cluster are not part of the VMware NSX portfolio. They are solutions for running Kubernetes clusters on any cloud3
VMware Aria Automation is not a real product name. It is a fictional name that does not exist in the VMware portfolio.
https://blogs.vmware.com/networkvirtualization/2020/01/nsx-hero.html/
Question #3
When a stateful service is enabled for the first lime on a Tier-0 Gateway, what happens on the NSX Edge node’
- A . SR is instantiated and automatically connected with DR.
- B . DR Is instantiated and automatically connected with SR.
- C . SR and DR Is instantiated but requites manual connection.
- D . SR and DR doesn’t need to be connected to provide any stateful services.
Correct Answer: A
A
Explanation:
The answer is A. SR is instantiated and automatically connected with DR.
SR stands for Service Router and DR stands for Distributed Router. They are components of the NSX Edge node that provide different functions1
The SR is responsible for providing stateful services such as NAT, firewall, load balancing, VPN, and DHCP. The DR is responsible for providing distributed routing and switching between logical segments and the physical network1
When a stateful service is enabled for the first time on a Tier-0 Gateway, the NSX Edge node automatically creates an SR instance and connects it with the existing DR instance. This allows the stateful service to be applied to the traffic that passes through the SR before reaching the DR2
According to the VMware NSX 4.x Professional Exam Guide, understanding the SR and DR components and their functions is one of the exam objectives3
To learn more about the SR and DR components and how they work on the NSX Edge node, you can refer to the following resources:
– VMware NSX Documentation: NSX Edge Components 1
– VMware NSX 4.x Professional: NSX Edge Architecture
– VMware NSX 4.x Professional: NSX Edge Routing
A
Explanation:
The answer is A. SR is instantiated and automatically connected with DR.
SR stands for Service Router and DR stands for Distributed Router. They are components of the NSX Edge node that provide different functions1
The SR is responsible for providing stateful services such as NAT, firewall, load balancing, VPN, and DHCP. The DR is responsible for providing distributed routing and switching between logical segments and the physical network1
When a stateful service is enabled for the first time on a Tier-0 Gateway, the NSX Edge node automatically creates an SR instance and connects it with the existing DR instance. This allows the stateful service to be applied to the traffic that passes through the SR before reaching the DR2
According to the VMware NSX 4.x Professional Exam Guide, understanding the SR and DR components and their functions is one of the exam objectives3
To learn more about the SR and DR components and how they work on the NSX Edge node, you can refer to the following resources:
– VMware NSX Documentation: NSX Edge Components 1
– VMware NSX 4.x Professional: NSX Edge Architecture
– VMware NSX 4.x Professional: NSX Edge Routing
Question #4
A company Is deploying NSX micro-segmentation in their vSphere environment to secure a simple application composed of web. app, and database tiers.
The naming convention will be:
• WKS-WEB-SRV-XXX
• WKY-APP-SRR-XXX
• WKI-DB-SRR-XXX
What is the optimal way to group them to enforce security policies from NSX?
- A . Use Edge as a firewall between tiers.
- B . Do a service insertion to accomplish the task.
- C . Group all by means of tags membership.
- D . Create an Ethernet based security policy.
Correct Answer: C
C
Explanation:
The answer is C. Group all by means of tags membership.
Tags are metadata that can be applied to physical servers, virtual machines, logical ports, and logical segments in NSX. Tags can be used for dynamic security group membership, which allows for granular and flexible enforcement of security policies based on various criteria1
In the scenario, the company is deploying NSX micro-segmentation to secure a simple application composed of web, app, and database tiers.
The naming convention will be:
– WKS-WEB-SRV-XXX
– WKY-APP-SRR-XXX
– WKI-DB-SRR-XXX
The optimal way to group them to enforce security policies from NSX is to use tags membership. For
example, the company can create three tags: Web, App, and DB, and assign them to the corresponding VMs based on their names. Then, the company can create three security groups: Web-SG, App-SG, and DB-SG, and use the tags as the membership criteria. Finally, the company can create and apply security policies to the security groups based on the desired rules and actions2
Using tags membership has several advantages over the other options:
– It is more scalable and dynamic than using Edge as a firewall between tiers. Edge firewall is a centralized solution that can create bottlenecks and performance issues when handling large amounts of traffic3
– It is more simple and efficient than doing a service insertion to accomplish the task. Service insertion is a feature that allows for integrating third-party services with NSX, such as antivirus or intrusion prevention systems. Service insertion is not necessary for basic micro-segmentation and can introduce additional complexity and overhead.
– It is more flexible and granular than creating an Ethernet based security policy. Ethernet based security policy is a type of policy that uses MAC addresses as the source or destination criteria. Ethernet based security policy is limited by the scope of layer 2 domains and does not support logical constructs such as segments or groups.
To learn more about tags membership and how to use it for micro-segmentation in NSX, you can refer to the following resources:
– VMware NSX Documentation: Security Tag 1
– VMware NSX Micro-segmentation Day 1: Chapter 4 – Security Policy Design 2
– VMware NSX 4.x Professional: Security Groups
– VMware NSX 4.x Professional: Security Policies
C
Explanation:
The answer is C. Group all by means of tags membership.
Tags are metadata that can be applied to physical servers, virtual machines, logical ports, and logical segments in NSX. Tags can be used for dynamic security group membership, which allows for granular and flexible enforcement of security policies based on various criteria1
In the scenario, the company is deploying NSX micro-segmentation to secure a simple application composed of web, app, and database tiers.
The naming convention will be:
– WKS-WEB-SRV-XXX
– WKY-APP-SRR-XXX
– WKI-DB-SRR-XXX
The optimal way to group them to enforce security policies from NSX is to use tags membership. For
example, the company can create three tags: Web, App, and DB, and assign them to the corresponding VMs based on their names. Then, the company can create three security groups: Web-SG, App-SG, and DB-SG, and use the tags as the membership criteria. Finally, the company can create and apply security policies to the security groups based on the desired rules and actions2
Using tags membership has several advantages over the other options:
– It is more scalable and dynamic than using Edge as a firewall between tiers. Edge firewall is a centralized solution that can create bottlenecks and performance issues when handling large amounts of traffic3
– It is more simple and efficient than doing a service insertion to accomplish the task. Service insertion is a feature that allows for integrating third-party services with NSX, such as antivirus or intrusion prevention systems. Service insertion is not necessary for basic micro-segmentation and can introduce additional complexity and overhead.
– It is more flexible and granular than creating an Ethernet based security policy. Ethernet based security policy is a type of policy that uses MAC addresses as the source or destination criteria. Ethernet based security policy is limited by the scope of layer 2 domains and does not support logical constructs such as segments or groups.
To learn more about tags membership and how to use it for micro-segmentation in NSX, you can refer to the following resources:
– VMware NSX Documentation: Security Tag 1
– VMware NSX Micro-segmentation Day 1: Chapter 4 – Security Policy Design 2
– VMware NSX 4.x Professional: Security Groups
– VMware NSX 4.x Professional: Security Policies
Question #5
When collecting support bundles through NSX Manager, which files should be excluded for potentially containing sensitive information?
- A . Controller Files
- B . Management Files
- C . Core Files
- D . Audit Files
Correct Answer: C
C
Explanation:
According to the VMware NSX Documentation1, core files and audit logs can contain sensitive information and should be excluded from the support bundle unless requested by VMware technical support. Controller files and management files are not mentioned as containing sensitive information.
Reference: 1: Support Bundle Collection Tool – VMware Docs
Core files and Audit logs might contain sensitive information such as passwords or encryption keys. https://docs.vmware.com/en/VMware-NSX/4.1/administration/GUID-73D9AF0D-4000-4EF2-AC66-6572AD1A0B30.html
C
Explanation:
According to the VMware NSX Documentation1, core files and audit logs can contain sensitive information and should be excluded from the support bundle unless requested by VMware technical support. Controller files and management files are not mentioned as containing sensitive information.
Reference: 1: Support Bundle Collection Tool – VMware Docs
Core files and Audit logs might contain sensitive information such as passwords or encryption keys. https://docs.vmware.com/en/VMware-NSX/4.1/administration/GUID-73D9AF0D-4000-4EF2-AC66-6572AD1A0B30.html
Question #6
Which three of the following describe the Border Gateway Routing Protocol (BGP) configuration on a Tier-0 Gateway? (Choose three.)
- A . Can be used as an Exterior Gateway Protocol.
- B . It supports a 4-byte autonomous system number.
- C . The network is divided into areas that are logical groups.
- D . EIGRP Is disabled by default.
- E . BGP is enabled by default.
Correct Answer: ABD
ABD
Explanation:
A) Can be used as an Exterior Gateway Protocol. This is correct. BGP is a protocol that can be used to exchange routing information between different autonomous systems (AS). An AS is a network or a group of networks under a single administrative control. BGP can be used as an Exterior Gateway Protocol (EGP) to connect an AS to other ASes on the internet or other external networks1
B) It supports a 4-byte autonomous system number. This is correct. BGP supports both 2-byte and 4-byte AS numbers. A 2-byte AS number can range from 1 to 65535, while a 4-byte AS number can range from 65536 to 4294967295. NSX supports both 2-byte and 4-byte AS numbers for BGP configuration on a Tier-0 Gateway2
C) The network is divided into areas that are logical groups. This is incorrect. This statement describes OSPF, not BGP. OSPF is another routing protocol that operates within a single AS and divides the network into areas to reduce routing overhead and improve scalability. BGP does not use the concept of areas, but rather uses attributes, policies, and filters to control the routing decisions and traffic flow3
D) FIGRP Is disabled by default. This is correct. FIGRP stands for Fast Interior Gateway Routing Protocol, which is an enhanced version of IGRP, an obsolete routing protocol developed by Cisco. FIGRP is not supported by NSX and is disabled by default on a Tier-0 Gateway.
E) BGP is enabled by default. This is incorrect. BGP is not enabled by default on a Tier-0 Gateway. To enable BGP, you need to configure the local AS number and the BGP neighbors on the Tier-0 Gateway using the NSX Manager UI or API.
To learn more about BGP configuration on a Tier-0 Gateway in NSX, you can refer to the following resources:
VMware NSX Documentation: Configure BGP 1
VMware NSX 4.x Professional: BGP Configuration
VMware NSX 4.x Professional: BGP Troubleshooting
ABD
Explanation:
A) Can be used as an Exterior Gateway Protocol. This is correct. BGP is a protocol that can be used to exchange routing information between different autonomous systems (AS). An AS is a network or a group of networks under a single administrative control. BGP can be used as an Exterior Gateway Protocol (EGP) to connect an AS to other ASes on the internet or other external networks1
B) It supports a 4-byte autonomous system number. This is correct. BGP supports both 2-byte and 4-byte AS numbers. A 2-byte AS number can range from 1 to 65535, while a 4-byte AS number can range from 65536 to 4294967295. NSX supports both 2-byte and 4-byte AS numbers for BGP configuration on a Tier-0 Gateway2
C) The network is divided into areas that are logical groups. This is incorrect. This statement describes OSPF, not BGP. OSPF is another routing protocol that operates within a single AS and divides the network into areas to reduce routing overhead and improve scalability. BGP does not use the concept of areas, but rather uses attributes, policies, and filters to control the routing decisions and traffic flow3
D) FIGRP Is disabled by default. This is correct. FIGRP stands for Fast Interior Gateway Routing Protocol, which is an enhanced version of IGRP, an obsolete routing protocol developed by Cisco. FIGRP is not supported by NSX and is disabled by default on a Tier-0 Gateway.
E) BGP is enabled by default. This is incorrect. BGP is not enabled by default on a Tier-0 Gateway. To enable BGP, you need to configure the local AS number and the BGP neighbors on the Tier-0 Gateway using the NSX Manager UI or API.
To learn more about BGP configuration on a Tier-0 Gateway in NSX, you can refer to the following resources:
VMware NSX Documentation: Configure BGP 1
VMware NSX 4.x Professional: BGP Configuration
VMware NSX 4.x Professional: BGP Troubleshooting
Question #7
Which three NSX Edge components are used for North-South Malware Prevention? (Choose three.)
- A . Thin Agent
- B . RAPID
- C . Security Hub
- D . IDS/IPS
- E . Security Analyzer
- F . Reputation Service
Correct Answer: BCD
BCD
Explanation:
https://docs.vmware.com/en/VMware-NSX/4.1/administration/GUID-69DF70C2-1769-4858-97E7-B757CAED08F0.html#:~:text=On%20the%20north%2Dsouth%20traffic,Guest%20Introspection%20(GI)%20platform.
The main components on the edge node for north-south malware prevention perform the following functions:
• IDS/IPS engine: Extracts files and relays events and data to the security hub North-south malware prevention uses the file extraction features of the IDS/IPS engine that runs on NSX Edge for north-south traffic.
• Security hub: Collects file events, obtains verdicts for known files, sends files for local and cloud-based analysis, and sends information to the security analyzer
• RAPID: Provides local analysis of the file
• ASDS Cache: Caches reputation and verdicts of known files
BCD
Explanation:
https://docs.vmware.com/en/VMware-NSX/4.1/administration/GUID-69DF70C2-1769-4858-97E7-B757CAED08F0.html#:~:text=On%20the%20north%2Dsouth%20traffic,Guest%20Introspection%20(GI)%20platform.
The main components on the edge node for north-south malware prevention perform the following functions:
• IDS/IPS engine: Extracts files and relays events and data to the security hub North-south malware prevention uses the file extraction features of the IDS/IPS engine that runs on NSX Edge for north-south traffic.
• Security hub: Collects file events, obtains verdicts for known files, sends files for local and cloud-based analysis, and sends information to the security analyzer
• RAPID: Provides local analysis of the file
• ASDS Cache: Caches reputation and verdicts of known files
Question #8
Which two statements are true about IDS Signatures? (Choose two.)
- A . Users can upload their own IDS signature definitions.
- B . An IDS signature contains data used to identify known exploits and vulnerabilities.
- C . An IDS signature contains data used to identify the creator of known exploits and vulnerabilities.
- D . IDS signatures can be High Risk, Suspicious, Low Risk and Trustworthy.
- E . An IDS signature contains a set of instructions that determine which traffic is analyzed.
Correct Answer: BE
BE
Explanation:
According to the Network Bachelor article1, an IDS signature contains data used to identify an attacker’s attempt to exploit a known vulnerability in both the operating system and applications. This implies that statement B is true. According to the VMware NSX Documentation2, IDS/IPS Profiles are used to group signatures, which can then be applied to select applications and traffic. This implies that statement E is true. Statement A is false because users cannot upload their own IDS signature definitions, they have to use the ones provided by VMware or Trustwave3. Statement C is false because an IDS signature does not contain data used to identify the creator of known exploits and vulnerabilities, only the exploits and vulnerabilities themselves. Statement D is false because IDS signatures are classified into one of the following severity categories: Critical, High, Medium, Low, or Informational1.
Reference: 3: Distributed IDS/IPS Settings and Signatures – VMware Docs 2: Distributed IDS/IPS –
VMware Docs 1: NSX-T: Exploring Distributed IDS – Network Bachelor
BE
Explanation:
According to the Network Bachelor article1, an IDS signature contains data used to identify an attacker’s attempt to exploit a known vulnerability in both the operating system and applications. This implies that statement B is true. According to the VMware NSX Documentation2, IDS/IPS Profiles are used to group signatures, which can then be applied to select applications and traffic. This implies that statement E is true. Statement A is false because users cannot upload their own IDS signature definitions, they have to use the ones provided by VMware or Trustwave3. Statement C is false because an IDS signature does not contain data used to identify the creator of known exploits and vulnerabilities, only the exploits and vulnerabilities themselves. Statement D is false because IDS signatures are classified into one of the following severity categories: Critical, High, Medium, Low, or Informational1.
Reference: 3: Distributed IDS/IPS Settings and Signatures – VMware Docs 2: Distributed IDS/IPS –
VMware Docs 1: NSX-T: Exploring Distributed IDS – Network Bachelor
Question #9
Which NSX CLI command is used to change the authentication policy for local users?
- A . Set cli-timeout
- B . Get auth-policy minimum-password-length
- C . Set hardening- policy
- D . Set auth-policy
Correct Answer: D
D
Explanation:
According to the VMware NSX Documentation4, the set auth-policy command is used to change the authentication policy settings for local users, such as password length, lockout period, and maximum authentication failures. The other commands are either used to view the authentication policy settings (B), change the CLI session timeout (A), or change the hardening policy settings ©.
Reference: 4: Authentication Policy Settings – VMware Docs https://docs.vmware.com/en/VMware-NSX/4.1/administration/GUID-99BAED85-D754-4589-9050-72A1AB528C10.html
D
Explanation:
According to the VMware NSX Documentation4, the set auth-policy command is used to change the authentication policy settings for local users, such as password length, lockout period, and maximum authentication failures. The other commands are either used to view the authentication policy settings (B), change the CLI session timeout (A), or change the hardening policy settings ©.
Reference: 4: Authentication Policy Settings – VMware Docs https://docs.vmware.com/en/VMware-NSX/4.1/administration/GUID-99BAED85-D754-4589-9050-72A1AB528C10.html
Question #10
Which statement is true about an alarm in a Suppressed state?
- A . An alarm can be suppressed for a specific duration in seconds.
- B . An alarm can be suppressed for a specific duration in days.
- C . An alarm can be suppressed for a specific duration in minutes.
- D . An alarm can be suppressed for a specific duration in hours.
Correct Answer: D
D
Explanation:
An alarm can be suppressed for a specific duration in hours.
According to the VMware NSX documentation, an alarm can be in one of the following states: Open, Acknowledged, Suppressed, or Resolved12
An alarm in a Suppressed state means that the status reporting for this alarm has been disabled by the user for a user-specified duration12
When a user moves an alarm into a Suppressed state, they are prompted to specify the duration in hours. After the specified duration passes, the alarm state reverts to Open. However, if the system determines the condition has been corrected, the alarm state changes to Resolved13
To learn more about how to manage alarm states in NSX, you can refer to the following resources:
VMware NSX Documentation: Managing Alarm States 1
VMware NSX Documentation: View Alarm Information 2
VMware NSX Intelligence Documentation: Manage NSX Intelligence Alarm States 3 https://docs.vmware.com/en/VMware-NSX-Intelligence/1.2/user-guide/GUID-EBD3C5A8-F9AB-4A22-BA40-92D61850C1E6.html
D
Explanation:
An alarm can be suppressed for a specific duration in hours.
According to the VMware NSX documentation, an alarm can be in one of the following states: Open, Acknowledged, Suppressed, or Resolved12
An alarm in a Suppressed state means that the status reporting for this alarm has been disabled by the user for a user-specified duration12
When a user moves an alarm into a Suppressed state, they are prompted to specify the duration in hours. After the specified duration passes, the alarm state reverts to Open. However, if the system determines the condition has been corrected, the alarm state changes to Resolved13
To learn more about how to manage alarm states in NSX, you can refer to the following resources:
VMware NSX Documentation: Managing Alarm States 1
VMware NSX Documentation: View Alarm Information 2
VMware NSX Intelligence Documentation: Manage NSX Intelligence Alarm States 3 https://docs.vmware.com/en/VMware-NSX-Intelligence/1.2/user-guide/GUID-EBD3C5A8-F9AB-4A22-BA40-92D61850C1E6.html
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