Which three Cloud NGFW management tasks are inherently performed by the service within AWS and Azure? (Choose three.)
The question asks about Cloud NGFW management tasks performed inherently by the service within AWS and Azure. This means we are looking for tasks that are automated and handled by the Cloud NGFW service itself, not by the customer.
Here's a breakdown of why A, B, and C are correct and why D and E are incorrect, referencing relevant Palo Alto Networks documentation where possible (though specific, publicly accessible documentation on the inner workings of the managed service is limited, the principles are consistent with their general cloud and firewall offerings):
A . Horizontally scaling out to meet increased traffic demand: This is a core feature of cloud-native services. Cloud NGFW is designed to automatically scale its resources (compute, memory, etc.) based on traffic volume. This eliminates the need for manual intervention by the customer to provision or de-provision resources. This aligns with the general principles of cloud elasticity and autoscaling, which are fundamental to cloud-native services like Cloud NGFW. While explicit public documentation detailing the exact scaling mechanism is limited, it's a standard practice for cloud-based services and is implied in the general description of Cloud NGFW as a managed service.
B . Installing new content (applications and threats): Palo Alto Networks maintains the threat intelligence and application databases for Cloud NGFW. This means that updates to these databases, which are crucial for identifying and blocking threats, are automatically pushed to the service by Palo Alto Networks. Customers do not need to manually download or install these updates. This is consistent with how Palo Alto Networks manages its other security services, such as Threat Prevention and WildFire, where content updates are delivered automatically.
C . Installing new PAN-OS software updates: Just like content updates, PAN-OS software updates are also managed by Palo Alto Networks for Cloud NGFW. This ensures that the service is always running the latest and most secure version of the operating system. This removes the operational burden of managing software updates from the customer. This is a key advantage of a managed service.
D . Blocking high-risk S2C threats in accordance with SOC2 compliance: While Cloud NGFW does block threats, including server-to-client (S2C) threats, the management of this blocking is not inherently performed by the service in the context of SOC2 compliance. SOC2 is an auditing framework, and compliance is the customer's responsibility. The service provides the tools to achieve security controls, but demonstrating and maintaining compliance is the customer's task. The service does not inherently manage the compliance process itself.
E . Decrypting high-risk SSL traffic: While Cloud NGFW can decrypt SSL traffic for inspection (SSL Forward Proxy), the question asks about tasks inherently performed by the service. Decryption is a configurable option. Customers choose whether or not to enable SSL decryption. It is not something the service automatically does without explicit configuration. Therefore, it's not an inherent management task performed by the service.
In summary, horizontal scaling, content updates, and PAN-OS updates are all handled automatically by the Cloud NGFW service, making A, B, and C the correct answers. D and E involve customer configuration or compliance considerations, not inherent management tasks performed by the service itself.
What can a firewall use to automatically update Security policies with new IP address information for a virtual machine (VM) when it has moved from host-A to host-B because host-A is down or undergoing periodic maintenance?
When a virtual machine moves between hosts and its IP address changes (or if it's assigned a new IP from a pool), traditional static security policies become ineffective. Dynamic Address Groups solve this problem.
A . Dynamic Address Groups: These groups automatically update their membership based on criteria such as tags, VM names, or other dynamic attributes. When a VM moves and its IP address changes, the Dynamic Address Group automatically updates its membership, ensuring that security policies remain effective without manual intervention. This is the correct solution for this scenario.
B . Dynamic User Groups: These groups are based on user identity and are used for user-based policy enforcement, not for tracking IP addresses of VMs.
C . Dynamic Host Groups: This is not a standard Palo Alto Networks term.
D . Dynamic IP Groups: While the concept sounds similar, the official Palo Alto Networks terminology is 'Dynamic Address Groups.' They achieve the functionality described in the question.
Which three capabilities and characteristics are shared by the deployments of Cloud NGFW for Azure and VM-Series firewalls? (Choose three.)
Cloud NGFW for Azure and VM-Series share certain functionalities due to their common PAN-OS foundation.
Why A, C, and D are correct:
A . Panorama management: Both Cloud NGFW for Azure and VM-Series firewalls can be managed by Panorama, providing centralized management and policy enforcement.
C . Transparent inspection of private-to-private east-west traffic that preserves client source IP address: Both platforms support this type of inspection, which is crucial for security and visibility within Azure virtual networks.
D . Inter-VNet inspection through a transit VNet: Both can be deployed in a transit VNet architecture to inspect traffic between different virtual networks.
Why B and E are incorrect:
B . Inter-VNet inspection through Virtual WAN hub: While VM-Series can be integrated with Azure Virtual WAN, Cloud NGFW for Azure is directly integrated and doesn't require a separate transit VNet or hub for basic inter-VNet inspection. It uses Azure's native networking.
E . Use of routing intent policies to apply security policies: Routing intent is specific to Cloud NGFW for Azure's integration with Azure networking and is not a feature of VM-Series. VM-Series uses standard security policies and routing configurations within the VNet.
Palo Alto Networks Reference:
Cloud NGFW for Azure Documentation: This documentation details the architecture and integration with Azure networking.
VM-Series Deployment Guide for Azure: This guide covers deployment architectures, including transit VNet deployments.
Panorama Administrator's Guide: This guide explains how to manage both platforms using Panorama.
Which statement applies when identifying the appropriate Palo Alto Networks firewall platform for virtualized as well as cloud environments?
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.
D. 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).
What are three valid methods that use firewall flex credits to activate VM-Series firewall licenses by specifying authcode? (Choose three.)
Firewall flex credits and authcodes are used to license VM-Series firewalls. The methods for using authcodes during bootstrapping include:
A . /config/bootstrap.xml file of complete bootstrapping package: The bootstrap.xml file is a key component of the bootstrapping process. It can contain the authcode for licensing.
B . /license/authcodes file of complete bootstrap package: A dedicated authcodes file within the bootstrap package is another valid method for providing license information.
C . Panorama device group in Panorama SW Licensing Plugin: While Panorama manages licenses, specifying authcodes directly via a device group is not the typical method for bootstrapping. Panorama usually manages licenses after the firewalls are bootstrapped and connected to Panorama.
D . authcodes= key value pair of Azure Vault configuration: While using Azure Key Vault for storing and retrieving secrets (like authcodes) is a good security practice for ongoing operations, it's not the primary method for initial bootstrapping using flex credits. Bootstrapping typically relies on the local bootstrap package.
E . authcodes= key value pair of basic bootstrapping configuration: This refers to including the authcode directly in the bootstrapping configuration, such as in the init-cfg.txt file or via cloud-init.
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