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Exam Palo Alto Networks Systems Engineer Professional-Software Firewall
Number PSE-SWFW-Pro-24
File Name Palo Alto Networks.PSE-SWFW-Pro-24.VCEplus.2024-12-23.24q.vcex
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Posted Dec 23, 2024
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Demo Questions

Question 1

A company is sponsoring a cybersecurity conference for attendees interested in a range of cybersecurity products that include malware protection, SASE, automation products, and firewalls. The company will deliver a single 3--4 hour conference workshop.
Which cybersecurity portfolio tool will give workshop attendees the appropriate exposure to the widest variety of Palo Alto Networks products?


  1. Capture the Flag
  2. Ultimate Lab Environment
  3. Demo Environment
  4. Ultimate Test Drive
Correct answer: B
Explanation:
For a conference workshop showcasing a wide range of Palo Alto Networks products, the Ultimate Lab Environment is the most suitable option.A . Capture the Flag: CTFs are interactive security competitions focusing on specific vulnerabilities and exploits. While engaging, they don't provide broad exposure to the full product portfolio.B . Ultimate Lab Environment: This environment is designed to provide hands-on experience with various Palo Alto Networks products and solutions, including firewalls, Prisma Access (SASE), Cortex (automation), and more.It's ideal for demonstrating the integrated platform and diverse capabilities.C . Demo Environment: While demo environments showcase product features, they are typically pre-configured and lack the interactive, hands-on experience of a lab environment. D . Ultimate Test Drive: Test Drives focus on specific use cases or products, not the breadth of the entire portfolio.
For a conference workshop showcasing a wide range of Palo Alto Networks products, the Ultimate Lab Environment is the most suitable option.
A . Capture the Flag: CTFs are interactive security competitions focusing on specific vulnerabilities and exploits. While engaging, they don't provide broad exposure to the full product portfolio.
B . Ultimate Lab Environment: This environment is designed to provide hands-on experience with various Palo Alto Networks products and solutions, including firewalls, Prisma Access (SASE), Cortex (automation), and more.
It's ideal for demonstrating the integrated platform and diverse capabilities.
C . Demo Environment: While demo environments showcase product features, they are typically pre-configured and lack the interactive, hands-on experience of a lab environment. 
D . Ultimate Test Drive: Test Drives focus on specific use cases or products, not the breadth of the entire portfolio.



Question 2

Which three tools or methods automate VM-Series firewall deployment? (Choose three.)


  1. Panorama Software Firewall License plugin
  2. Palo Alto Networks GitHub repository
  3. Bootstrap the VM-Series firewall
  4. Shared Disk Software Library folder
  5. Panorama Software Library image
Correct answer: BCE
Explanation:
Several tools and methods automate VM-Series firewall deployment:A . Panorama Software Firewall License plugin: Panorama is used for managing firewalls, not directly for automating their initial deployment.B . Palo Alto Networks GitHub repository: Palo Alto Networks maintains repositories on GitHub containing Terraform modules, Ansible playbooks, and other automation tools for deploying VM-Series firewalls in various cloud and on-premises environments.C . Bootstrap the VM-Series firewall: Bootstrapping allows for automated initial configuration of the VM-Series firewall using a configuration file stored on a cloud storage service (like S3 or Azure Blob Storage). This automates initial setup tasks like setting the management IP and retrieving licenses.D . Shared Disk Software Library folder: This is not a standard method for automating VM-Series deployment.E . Panorama Software Library image: While Panorama doesn't directly deploy the VM-Series instance, using a pre-configured Software Library image within Panorama can automate much of the post-deployment configuration and management, effectively streamlining the overall deployment process.VM-Series Deployment Guides: These guides detail bootstrapping and often reference automation tools on GitHub.Panorama Administrator's Guide: This explains how to use Software Library images.These resources confirm that GitHub repositories, bootstrapping, and using Panorama Software Library images are methods for automating VM-Series deployment.
Several tools and methods automate VM-Series firewall deployment:
A . Panorama Software Firewall License plugin: Panorama is used for managing firewalls, not directly for automating their initial deployment.
B . Palo Alto Networks GitHub repository: Palo Alto Networks maintains repositories on GitHub containing Terraform modules, Ansible playbooks, and other automation tools for deploying VM-Series firewalls in various cloud and on-premises environments.
C . Bootstrap the VM-Series firewall: Bootstrapping allows for automated initial configuration of the VM-Series firewall using a configuration file stored on a cloud storage service (like S3 or Azure Blob Storage). This automates initial setup tasks like setting the management IP and retrieving licenses.
D . Shared Disk Software Library folder: This is not a standard method for automating VM-Series deployment.
E . Panorama Software Library image: While Panorama doesn't directly deploy the VM-Series instance, using a pre-configured Software Library image within Panorama can automate much of the post-deployment configuration and management, effectively streamlining the overall deployment process.
VM-Series Deployment Guides: These guides detail bootstrapping and often reference automation tools on GitHub.
Panorama Administrator's Guide: This explains how to use Software Library images.
These resources confirm that GitHub repositories, bootstrapping, and using Panorama Software Library images are methods for automating VM-Series deployment.



Question 3

Why should a customer use advanced versions of Cloud-Delivered Security Services (CDSS) subscriptions compared to legacy versions when creating or editing a deployment profile?
(e.g., using Advanced Threat Prevention instead of Threat Prevention.)


  1. To improve firewall throughput by inspecting hashes of advanced packet headers
  2. To download and install new threat-related signature databases in real-time
  3. To use cloud-scale machine learning inline for detection of highly evasive and zero-day threats
  4. To use external dynamic lists for blocking known malicious threat sources and destinations
Correct answer: C
Explanation:
Advanced CDSS subscriptions offer enhanced threat prevention capabilities:A . To improve firewall throughput by inspecting hashes of advanced packet headers: While some security features use hashing, this is not the primary advantage of advanced CDSS.B . To download and install new threat-related signature databases in real-time: Both standard and advanced CDSS subscriptions receive regular threat updates.C . To use cloud-scale machine learning inline for detection of highly evasive and zero-day threats: This is a key differentiator of advanced CDSS. It leverages cloud-based machine learning to detect sophisticated threats that traditional signature-based methods might miss.D . To use external dynamic lists for blocking known malicious threat sources and destinations: Both standard and advanced CDSS can use external dynamic lists.Information about the specific features of advanced CDSS, such as inline machine learning, can be found on the Palo Alto Networks website and in datasheets comparing different CDSS subscription levels.
Advanced CDSS subscriptions offer enhanced threat prevention capabilities:
A . To improve firewall throughput by inspecting hashes of advanced packet headers: While some security features use hashing, this is not the primary advantage of advanced CDSS.
B . To download and install new threat-related signature databases in real-time: Both standard and advanced CDSS subscriptions receive regular threat updates.
C . To use cloud-scale machine learning inline for detection of highly evasive and zero-day threats: This is a key differentiator of advanced CDSS. It leverages cloud-based machine learning to detect sophisticated threats that traditional signature-based methods might miss.
D . To use external dynamic lists for blocking known malicious threat sources and destinations: Both standard and advanced CDSS can use external dynamic lists.
Information about the specific features of advanced CDSS, such as inline machine learning, can be found on the Palo Alto Networks website and in datasheets comparing different CDSS subscription levels.



Question 4

Which statement applies when identifying the appropriate Palo Alto Networks firewall platform for virtualized as well as cloud environments?


  1. VM-Series firewalls cannot be used to protect container environments.
  2. All NGFW platforms support API integration.
  3. Panorama is the only unified management console for all NGFWs.
  4. CN-Series firewalls are used to protect virtualized environments.
Correct answer: B
Explanation:
A . VM-Series firewalls cannot be used to protect container environments: This is incorrect. While CN-Series is specifically designed for container environments, VM-Series can also be used in certain container deployments, often in conjunction with other container networking solutions. For example, VM-Series can be deployed as a gateway for a Kubernetes cluster.B . All NGFW platforms support API integration: This is correct. Palo Alto Networks firewalls, including PA-Series (hardware), VM-Series (virtualized), CN-Series (containerized), and Cloud NGFW, offer robust API support for automation, integration with other systems, and programmatic management. This is a core feature of their platform approach.C . Panorama is the only unified management console for all NGFWs: This is incorrect. While Panorama is a powerful centralized management platform, it's not the only option. Individual firewalls can be managed locally via their web interface or CLI. Additionally, Cloud NGFW has its own management interface within the cloud provider's console.CN-Series firewalls are used to protect virtualized environments: This is incorrect. CN-Series is specifically designed for containerized environments (e.g., Kubernetes, OpenShift), not general virtualized environments. VM-Series is the appropriate choice for virtualized environments (e.g., VMware vSphere, AWS EC2).
A . VM-Series firewalls cannot be used to protect container environments: This is incorrect. While CN-Series is specifically designed for container environments, VM-Series can also be used in certain container deployments, often in conjunction with other container networking solutions. For example, VM-Series can be deployed as a gateway for a Kubernetes cluster.
B . All NGFW platforms support API integration: This is correct. Palo Alto Networks firewalls, including PA-Series (hardware), VM-Series (virtualized), CN-Series (containerized), and Cloud NGFW, offer robust API support for automation, integration with other systems, and programmatic management. This is a core feature of their platform approach.
C . Panorama is the only unified management console for all NGFWs: This is incorrect. While Panorama is a powerful centralized management platform, it's not the only option. Individual firewalls can be managed locally via their web interface or CLI. Additionally, Cloud NGFW has its own management interface within the cloud provider's console.
CN-Series firewalls are used to protect virtualized environments: This is incorrect. CN-Series is specifically designed for containerized environments (e.g., Kubernetes, OpenShift), not general virtualized environments. VM-Series is the appropriate choice for virtualized environments (e.g., VMware vSphere, AWS EC2).



Question 5

Which capability, as described in the Securing Applications series of design guides for VM-Series firewalls, is common across Azure, GCP, and AWS?


  1. BGP dynamic routing to peer with cloud and on-premises routers
  2. GlobalProtect portal and gateway services
  3. Horizontal scalability through cloud-native load balancers
  4. Site-to-site VPN
Correct answer: C
Explanation:
The question asks about a capability common to VM-Series deployments across Azure, GCP, and AWS, as described in the 'Securing Applications' design guides.C . Horizontal scalability through cloud-native load balancers: This is the correct answer. A core concept in cloud deployments, and emphasized in the 'Securing Applications' guides, is using cloud-native load balancers (like Azure Load Balancer, Google Cloud Load Balancing, and AWS Elastic Load Balancing) to distribute traffic across multiple VM-Series firewall instances. This provides horizontal scalability, high availability, and fault tolerance.This is common across all three major cloud providers.Why other options are incorrect:A . BGP dynamic routing to peer with cloud and on-premises routers: While BGP is supported by VM-Series and can be used for dynamic routing in cloud environments, it is not explicitly highlighted as a common capability across all three clouds in the 'Securing Applications' guides. The guides focus more on the application security aspects and horizontal scaling. Also, the specific BGP configurations and integrations can differ slightly between cloud providers.B . GlobalProtect portal and gateway services: While GlobalProtect can be used with VM-Series in cloud environments, the 'Securing Applications' guides primarily focus on securing application traffic within the cloudenvironment, not remote access. GlobalProtect is more relevant for remote user access or site-to-site VPNs, which are not the primary focus of these guides.D . Site-to-site VPN: While VM-Series firewalls support site-to-site VPNs in all three clouds, this is not the core focus or common capability highlighted in the 'Securing Applications' guides. These guides emphasize securing application traffic within the cloud using techniques like microsegmentation and horizontal scaling.Palo Alto NetworksReference:The key reference here is the 'Securing Applications' design guides for VM-Series firewalls. These guides are available on the Palo Alto Networks support site (live.paloaltonetworks.com). Searching for 'VM-Series Securing Applications' along with the name of the respective cloud provider (Azure, GCP, AWS) will usually provide the relevant guides
The question asks about a capability common to VM-Series deployments across Azure, GCP, and AWS, as described in the 'Securing Applications' design guides.
C . Horizontal scalability through cloud-native load balancers: This is the correct answer. A core concept in cloud deployments, and emphasized in the 'Securing Applications' guides, is using cloud-native load balancers (like Azure Load Balancer, Google Cloud Load Balancing, and AWS Elastic Load Balancing) to distribute traffic across multiple VM-Series firewall instances. This provides horizontal scalability, high availability, and fault tolerance.
This is common across all three major cloud providers.
Why other options are incorrect:
A . BGP dynamic routing to peer with cloud and on-premises routers: While BGP is supported by VM-Series and can be used for dynamic routing in cloud environments, it is not explicitly highlighted as a common capability across all three clouds in the 'Securing Applications' guides. The guides focus more on the application security aspects and horizontal scaling. Also, the specific BGP configurations and integrations can differ slightly between cloud providers.
B . GlobalProtect portal and gateway services: While GlobalProtect can be used with VM-Series in cloud environments, the 'Securing Applications' guides primarily focus on securing application traffic within the cloud
environment, not remote access. GlobalProtect is more relevant for remote user access or site-to-site VPNs, which are not the primary focus of these guides.
D . Site-to-site VPN: While VM-Series firewalls support site-to-site VPNs in all three clouds, this is not the core focus or common capability highlighted in the 'Securing Applications' guides. These guides emphasize securing application traffic within the cloud using techniques like microsegmentation and horizontal scaling.
Palo Alto Networks
Reference:
The key reference here is the 'Securing Applications' design guides for VM-Series firewalls. These guides are available on the Palo Alto Networks support site (live.paloaltonetworks.com). Searching for 'VM-Series Securing Applications' along with the name of the respective cloud provider (Azure, GCP, AWS) will usually provide the relevant guides



Question 6

A company that purchased software NGFW credits from Palo Alto Networks has made a decision on the number of virtual machines (VMs) and licenses they wish to deploy in AWS cloud.
 
How are the VM licenses created?


  1. Access the AWS Marketplace and use the software NGFW credits to purchase the VMs.
  2. Access the Palo Alto Networks Application Hub and create a new VM profile.
  3. Access the Palo Alto Networks Customer Support Portal and request the creation of a new software NGFW serial number.
  4. Access the Palo Alto Networks Customer Support Portal and create a software NGFW credits deployment profile.
Correct answer: D
Explanation:
The question focuses on how VM licenses are created when a company has purchased software NGFW credits and wants to deploy VM-Series firewalls in AWS.D . Access the Palo Alto Networks Customer Support Portal and create a software NGFW credits deployment profile. This is the correct answer. The process starts in the Palo Alto Networks Customer Support Portal. You create a deployment profile that specifies the number and type of VM-Series licenses you want to deploy. This profile is then used to activate the licenses on the actual VM-Series instances in AWS.Why other options are incorrect:A . Access the AWS Marketplace and use the software NGFW credits to purchase the VMs. You do deploy the VM-Series instances from the AWS Marketplace (or through other deployment methods like CloudFormation templates), but you don't 'purchase' the licenses there. The credits are managed separately through the Palo Alto Networks Customer Support Portal. The Marketplace deployment is for the VM instance itself, not the license.B . Access the Palo Alto Networks Application Hub and create a new VM profile. The Application Hub is not directly involved in the license creation process. It's more focused on application-level security and content updates.C . Access the Palo Alto Networks Customer Support Portal and request the creation of a new software NGFW serial number. You don't request individual serial numbers for each VM. The deployment profile manages the allocation of licenses from your pool of credits. While each VM will have a serial number once deployed, you don't request them individually during this stage. The deployment profile ties the licenses to the deployment, not individual serial numbers ahead of deployment.Palo Alto NetworksReference:The Palo Alto Networks Customer Support Portal documentation and the VM-Series Deployment Guide are the primary references. Search the support portal (live.paloaltonetworks.com) for 'software NGFW credits,' 'deployment profile,' or 'VM-Series licensing.'The documentation will describe the following general process:Purchase software NGFW credits.Log in to the Palo Alto Networks Customer Support Portal.Create a deployment profile, specifying the number and type of VM-Series licenses (e.g., VM-Series for AWS, VM-Series for Azure, etc.) you want to allocate from your credits.Deploy the VM-Series instances in your cloud environment (e.g., from the AWS Marketplace).Activate the licenses on the VM-Series instances using the deployment profile.This process confirms that creating a deployment profile in the customer support portal is the correct way to manage and allocate software NGFW licenses.
The question focuses on how VM licenses are created when a company has purchased software NGFW credits and wants to deploy VM-Series firewalls in AWS.
D . Access the Palo Alto Networks Customer Support Portal and create a software NGFW credits deployment profile. This is the correct answer. The process starts in the Palo Alto Networks Customer Support Portal. You create a deployment profile that specifies the number and type of VM-Series licenses you want to deploy. This profile is then used to activate the licenses on the actual VM-Series instances in AWS.
Why other options are incorrect:
A . Access the AWS Marketplace and use the software NGFW credits to purchase the VMs. You do deploy the VM-Series instances from the AWS Marketplace (or through other deployment methods like CloudFormation templates), but you don't 'purchase' the licenses there. The credits are managed separately through the Palo Alto Networks Customer Support Portal. The Marketplace deployment is for the VM instance itself, not the license.
B . Access the Palo Alto Networks Application Hub and create a new VM profile. The Application Hub is not directly involved in the license creation process. It's more focused on application-level security and content updates.
C . Access the Palo Alto Networks Customer Support Portal and request the creation of a new software NGFW serial number. You don't request individual serial numbers for each VM. The deployment profile manages the allocation of licenses from your pool of credits. While each VM will have a serial number once deployed, you don't request them individually during this stage. The deployment profile ties the licenses to the deployment, not individual serial numbers ahead of deployment.
Palo Alto Networks
Reference:
The Palo Alto Networks Customer Support Portal documentation and the VM-Series Deployment Guide are the primary references. Search the support portal (live.paloaltonetworks.com) for 'software NGFW credits,' 'deployment profile,' or 'VM-Series licensing.'
The documentation will describe the following general process:
Purchase software NGFW credits.
Log in to the Palo Alto Networks Customer Support Portal.
Create a deployment profile, specifying the number and type of VM-Series licenses (e.g., VM-Series for AWS, VM-Series for Azure, etc.) you want to allocate from your credits.
Deploy the VM-Series instances in your cloud environment (e.g., from the AWS Marketplace).
Activate the licenses on the VM-Series instances using the deployment profile.
This process confirms that creating a deployment profile in the customer support portal is the correct way to manage and allocate software NGFW licenses.



Question 7

What is the primary purpose of the pan-os-python SDK?


  1. To create a Python-based firewall that is compatible with the latest PAN-OS
  2. To replace the PAN-OS web interface with a Python-based interface
  3. To automate the deployment of PAN-OS firewalls by using Python
  4. To provide a Python interface to interact with PAN-OS firewalls and Panorama
Correct answer: D
Explanation:
The question asks about the primary purpose of the pan-os-python SDK.D . To provide a Python interface to interact with PAN-OS firewalls and Panorama: This is the correct answer. The pan-os-python SDK (Software Development Kit) is designed to allow Python scripts and applications to interact programmatically with Palo Alto Networks firewalls (running PAN-OS) and Panorama. It provides functions and classes that simplify tasks like configuration management, monitoring, and automation.Why other options are incorrect:A . To create a Python-based firewall that is compatible with the latest PAN-OS: The pan-os-python SDK is not about creating a firewall itself. It's a tool for interacting with existing PAN-OS firewalls. B . To replace the PAN-OS web interface with a Python-based interface: While you can build custom tools and interfaces using the SDK, its primary purpose is not to replace the web interface. The web interface remains the standard management interface.C . To automate the deployment of PAN-OS firewalls by using Python: While the SDK can be used as part of an automated deployment process (e.g., in conjunction with tools like Terraform or Ansible), its core purpose is broader: to provide a general Python interface for interacting with PAN-OS and Panorama, not just for deployment. Palo Alto NetworksReference:The primary reference is the official pan-os-python SDK documentation, which can be found on GitHub (usually in the Palo Alto Networks GitHub organization) and is referenced on the Palo Alto Networks Developer portal. Searching for 'pan-os-python' on the Palo Alto Networks website or on GitHub will locate the official repository.The documentation will clearly state that the SDK's purpose is to:Provide a Pythonic way to interact with PAN-OS devices.Abstract the underlying XML API calls, making it easier to write scripts.Support various operations, including configuration, monitoring, and operational commands.The documentation will contain examples demonstrating how to use the SDK to perform various tasks, reinforcing its role as a Python interface for PAN-OS and Panorama.
The question asks about the primary purpose of the pan-os-python SDK.
D . To provide a Python interface to interact with PAN-OS firewalls and Panorama: This is the correct answer. The pan-os-python SDK (Software Development Kit) is designed to allow Python scripts and applications to interact programmatically with Palo Alto Networks firewalls (running PAN-OS) and Panorama. It provides functions and classes that simplify tasks like configuration management, monitoring, and automation.
Why other options are incorrect:
A . To create a Python-based firewall that is compatible with the latest PAN-OS: The pan-os-python SDK is not about creating a firewall itself. It's a tool for interacting with existing PAN-OS firewalls. 
B . To replace the PAN-OS web interface with a Python-based interface: While you can build custom tools and interfaces using the SDK, its primary purpose is not to replace the web interface. The web interface remains the standard management interface.
C . To automate the deployment of PAN-OS firewalls by using Python: While the SDK can be used as part of an automated deployment process (e.g., in conjunction with tools like Terraform or Ansible), its core purpose is broader: to provide a general Python interface for interacting with PAN-OS and Panorama, not just for deployment. 
Palo Alto Networks
Reference:
The primary reference is the official pan-os-python SDK documentation, which can be found on GitHub (usually in the Palo Alto Networks GitHub organization) and is referenced on the Palo Alto Networks Developer portal. 
Searching for 'pan-os-python' on the Palo Alto Networks website or on GitHub will locate the official repository.
The documentation will clearly state that the SDK's purpose is to:
Provide a Pythonic way to interact with PAN-OS devices.
Abstract the underlying XML API calls, making it easier to write scripts.
Support various operations, including configuration, monitoring, and operational commands.
The documentation will contain examples demonstrating how to use the SDK to perform various tasks, reinforcing its role as a Python interface for PAN-OS and Panorama.



Question 8

Which use case is valid for Strata Cloud Manager (SCM)?


  1. Provisioning and licensing new CN-Series firewall deployments
  2. Providing AI-Powered ADEM for all Prisma Access users
  3. Supporting pre PAN-OS 10.1 SD-WAN migrations to SCM
  4. Providing API-driven plugin framework for integration with third-party ecosystems
Correct answer: D
Explanation:
The question asks about the primary purpose of the pan-os-python SDK.D . To provide a Python interface to interact with PAN-OS firewalls and Panorama: This is the correct answer. The pan-os-python SDK (Software Development Kit) is designed to allow Python scripts and applications to interact programmatically with Palo Alto Networks firewalls (running PAN-OS) and Panorama. It provides functions and classes that simplify tasks like configuration management, monitoring, and automation.Why other options are incorrect:A . To create a Python-based firewall that is compatible with the latest PAN-OS: The pan-os-python SDK is not about creating a firewall itself. It's a tool for interacting with existing PAN-OS firewalls.B . To replace the PAN-OS web interface with a Python-based interface: While you can build custom tools and interfaces using the SDK, its primary purpose is not to replace the web interface. The web interface remains the standard management interface.C . To automate the deployment of PAN-OS firewalls by using Python: While the SDK can be used as part of an automated deployment process (e.g., in conjunction with tools like Terraform or Ansible), its core purpose is broader: to provide a general Python interface for interacting with PAN-OS and Panorama, not just for deployment.Palo Alto NetworksReference:The primary reference is the official pan-os-python SDK documentation, which can be found on GitHub (usually in the Palo Alto Networks GitHub organization) and is referenced on the Palo Alto Networks Developer portal.Searching for 'pan-os-python' on the Palo Alto Networks website or on GitHub will locate the official repository.The documentation will clearly state that the SDK's purpose is to:Provide a Pythonic way to interact with PAN-OS devices.Abstract the underlying XML API calls, making it easier to write scripts.Support various operations, including configuration, monitoring, and operational commands.The documentation will contain examples demonstrating how to use the SDK to perform various tasks, reinforcing its role as a Python interface for PAN-OS and Panorama.
The question asks about the primary purpose of the pan-os-python SDK.
D . To provide a Python interface to interact with PAN-OS firewalls and Panorama: This is the correct answer. The pan-os-python SDK (Software Development Kit) is designed to allow Python scripts and applications to interact programmatically with Palo Alto Networks firewalls (running PAN-OS) and Panorama. It provides functions and classes that simplify tasks like configuration management, monitoring, and automation.
Why other options are incorrect:
A . To create a Python-based firewall that is compatible with the latest PAN-OS: The pan-os-python SDK is not about creating a firewall itself. It's a tool for interacting with existing PAN-OS firewalls.
B . To replace the PAN-OS web interface with a Python-based interface: While you can build custom tools and interfaces using the SDK, its primary purpose is not to replace the web interface. The web interface remains the standard management interface.
C . To automate the deployment of PAN-OS firewalls by using Python: While the SDK can be used as part of an automated deployment process (e.g., in conjunction with tools like Terraform or Ansible), its core purpose is broader: to provide a general Python interface for interacting with PAN-OS and Panorama, not just for deployment.
Palo Alto Networks
Reference:
The primary reference is the official pan-os-python SDK documentation, which can be found on GitHub (usually in the Palo Alto Networks GitHub organization) and is referenced on the Palo Alto Networks Developer portal.
Searching for 'pan-os-python' on the Palo Alto Networks website or on GitHub will locate the official repository.
The documentation will clearly state that the SDK's purpose is to:
Provide a Pythonic way to interact with PAN-OS devices.
Abstract the underlying XML API calls, making it easier to write scripts.
Support various operations, including configuration, monitoring, and operational commands.
The documentation will contain examples demonstrating how to use the SDK to perform various tasks, reinforcing its role as a Python interface for PAN-OS and Panorama.



Question 9

What are three components of Cloud NGFW for AWS? (Choose three.)


  1. Cloud NGFW Resource
  2. Local or Global Rulestacks 
  3. Cloud NGFW Inspector
  4. Amazon S3 bucket
  5. Cloud NGFW Tenant
Correct answer: ABC
Explanation:
Cloud NGFW for AWS is a Next-Generation Firewall as a Service. Its key components work together to provide comprehensive network security.A . Cloud NGFW Resource: This represents the actual deployed firewall instance within your AWS environment. It's the core processing engine that inspects and secures network traffic. The Cloud NGFW resource is deployed in a VPC and associated with subnets, enabling traffic inspection between VPCs, subnets, and to/from the internet.B . Local or Global Rulestacks: These define the security policies that govern traffic inspection. Rulestacks contain rules that match traffic based on various criteria (e.g., source/destination IP, port, application) and specify the action to take (e.g., allow, deny, inspect). Local Rulestacks are specific to a single Cloud NGFW resource, while Global Rulestacks can be shared across multiple Cloud NGFW resources for consistent policy enforcement.C . Cloud NGFW Inspector: The Cloud NGFW Inspector is the core component performing the deep packet inspection and applying security policies. It resides within the Cloud NGFW Resource and analyzes network traffic based on the configured rulestacks. It provides advanced threat prevention capabilities, including intrusion prevention (IPS), malware detection, and URL filtering.D . Amazon S3 bucket: While S3 buckets can be used for logging and storing configuration backups in some firewall deployments, they are not a core component of the Cloud NGFW architecture itself. Cloud NGFW uses its own logging and management infrastructure.E . Cloud NGFW Tenant: The term 'Tenant' is usually associated with multi-tenant architectures where resources are shared among multiple customers. While Palo Alto Networks provides a managed service for Cloud NGFW, the deployment within your AWS account is dedicated and not considered a tenant in the traditional multi-tenant sense. The management of the firewall is done through Panorama or Cloud Management.While direct, concise documentation specifically listing these three components in this exact format is difficult to pinpoint in a single document, the Palo Alto Networks documentation consistently describes these elements as integral. The concepts are spread across multiple documents and are best understood in context of the overall Cloud NGFW architecture:Cloud NGFW for AWS Administration Guide: This is the primary resource for understanding Cloud NGFW. It details deployment, configuration, and management, covering the roles of the Cloud NGFW resource, rulestacks, and the underlying inspection engine. You can find this documentation on the Palo Alto Networks support portal by searching for 'Cloud NGFW for AWS Administration Guide'.
Cloud NGFW for AWS is a Next-Generation Firewall as a Service. Its key components work together to provide comprehensive network security.
A . Cloud NGFW Resource: This represents the actual deployed firewall instance within your AWS environment. It's the core processing engine that inspects and secures network traffic. The Cloud NGFW resource is deployed in a VPC and associated with subnets, enabling traffic inspection between VPCs, subnets, and to/from the internet.
B . Local or Global Rulestacks: These define the security policies that govern traffic inspection. Rulestacks contain rules that match traffic based on various criteria (e.g., source/destination IP, port, application) and specify the action to take (e.g., allow, deny, inspect). Local Rulestacks are specific to a single Cloud NGFW resource, while Global Rulestacks can be shared across multiple Cloud NGFW resources for consistent policy enforcement.
C . Cloud NGFW Inspector: The Cloud NGFW Inspector is the core component performing the deep packet inspection and applying security policies. It resides within the Cloud NGFW Resource and analyzes network traffic based on the configured rulestacks. It provides advanced threat prevention capabilities, including intrusion prevention (IPS), malware detection, and URL filtering.
D . Amazon S3 bucket: While S3 buckets can be used for logging and storing configuration backups in some firewall deployments, they are not a core component of the Cloud NGFW architecture itself. Cloud NGFW uses its own logging and management infrastructure.
E . Cloud NGFW Tenant: The term 'Tenant' is usually associated with multi-tenant architectures where resources are shared among multiple customers. While Palo Alto Networks provides a managed service for Cloud NGFW, the deployment within your AWS account is dedicated and not considered a tenant in the traditional multi-tenant sense. The management of the firewall is done through Panorama or Cloud Management.
While direct, concise documentation specifically listing these three components in this exact format is difficult to pinpoint in a single document, the Palo Alto Networks documentation consistently describes these elements as integral. The concepts are spread across multiple documents and are best understood in context of the overall Cloud NGFW architecture:
Cloud NGFW for AWS Administration Guide: This is the primary resource for understanding Cloud NGFW. It details deployment, configuration, and management, covering the roles of the Cloud NGFW resource, rulestacks, and the underlying inspection engine. You can find this documentation on the Palo Alto Networks support portal by searching for 'Cloud NGFW for AWS Administration Guide'.



Question 10

Which three methods may be used to deploy CN-Series firewalls? (Choose three.)


  1. Terraform templates
  2. Panorama plugin for Kubernetes
  3. YAML file
  4. Helm charts
  5. Docker Swarm
Correct answer: ACD
Explanation:
The CN-Series firewalls are containerized firewalls designed to protect Kubernetes environments. They offer several deployment methods to integrate with Kubernetes orchestration.A . Terraform templates: Terraform is an Infrastructure-as-Code (IaC) tool that allows you to define and provision infrastructure using declarative configuration files. 1 Palo Alto Networks provides Terraform modules and examples to deploy CN-Series firewalls, enabling automated and repeatable deployments.https://prathmeshh.hashnode.dev/day-62-terraform-and-docker1. prathmeshh.hashnode.devhttps://prathmeshh.hashnode.dev/day-62-terraform-and-dockerprathmeshh.hashnode.devB . Panorama plugin for Kubernetes: While Panorama is used to manage CN-Series firewalls centrally, there isn't a direct 'Panorama plugin for Kubernetes' for deploying the firewalls themselves. Panorama is used for management after they're deployed using other methods. C . YAML file: Kubernetes uses YAML files (manifests) to define the desired state of deployments, including pods, services, and other resources. You can deploy CN-Series firewalls by creating YAML files that define the necessary Kubernetes objects, such as Deployments, Services, and ConfigMaps. This is a core method for Kubernetes deployments.D . Helm charts: Helm is a package manager for Kubernetes. Helm charts package Kubernetes resources, including YAML files, into reusable and shareable units. Palo Alto Networks provides Helm charts for deploying CN-Series firewalls, simplifying the deployment process and managing updates.E . Docker Swarm: Docker Swarm is a container orchestration tool, but CN-Series firewalls are specifically designed for Kubernetes and are not deployed using Docker Swarm. The Palo Alto Networks documentation clearly outlines these deployment methods:CN-Series Deployment Guide: This is the primary resource for deploying CN-Series firewalls. It provides detailed instructions and examples for using Terraform, YAML files, and Helm charts. You can find this on the Palo Alto Networks support portal by searching for 'CN-Series Deployment Guide'.
The CN-Series firewalls are containerized firewalls designed to protect Kubernetes environments. They offer several deployment methods to integrate with Kubernetes orchestration.
A . Terraform templates: Terraform is an Infrastructure-as-Code (IaC) tool that allows you to define and provision infrastructure using declarative configuration files. 1 Palo Alto Networks provides Terraform modules and examples to deploy CN-Series firewalls, enabling automated and repeatable deployments.
https://prathmeshh.hashnode.dev/day-62-terraform-and-docker
1. prathmeshh.hashnode.dev
https://prathmeshh.hashnode.dev/day-62-terraform-and-docker
prathmeshh.hashnode.dev
B . Panorama plugin for Kubernetes: While Panorama is used to manage CN-Series firewalls centrally, there isn't a direct 'Panorama plugin for Kubernetes' for deploying the firewalls themselves. Panorama is used for management after they're deployed using other methods. 
C . YAML file: Kubernetes uses YAML files (manifests) to define the desired state of deployments, including pods, services, and other resources. You can deploy CN-Series firewalls by creating YAML files that define the necessary Kubernetes objects, such as Deployments, Services, and ConfigMaps. This is a core method for Kubernetes deployments.
D . Helm charts: Helm is a package manager for Kubernetes. Helm charts package Kubernetes resources, including YAML files, into reusable and shareable units. Palo Alto Networks provides Helm charts for deploying CN-Series firewalls, simplifying the deployment process and managing updates.
E . Docker Swarm: Docker Swarm is a container orchestration tool, but CN-Series firewalls are specifically designed for Kubernetes and are not deployed using Docker Swarm. 
The Palo Alto Networks documentation clearly outlines these deployment methods:
CN-Series Deployment Guide: This is the primary resource for deploying CN-Series firewalls. It provides detailed instructions and examples for using Terraform, YAML files, and Helm charts. You can find this on the Palo Alto Networks support portal by searching for 'CN-Series Deployment Guide'.









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