CloudSec-Pro Palo Alto Networks Cloud Security Professional Questions and Answers

Web Application and API Security (WAAS) bot protection within the Prisma Cloud ecosystem includes various types of bots, with "User-defined bots" and "Unknown bots" being two key categories. User-defined bots refer to bots that organizations have explicitly identified and categorized based on their behavior and purpose. These can include legitimate bots such as search engine crawlers or internal automation tools, which are recognized and allowed based on predefined criteria set by the user.

Unknown bots, on the other hand, encompass bots that have not been explicitly identified or categorized by the user or the system. These can potentially include malicious bots that attempt to scrape data, perform DDoS attacks, or exploit vulnerabilities in web applications and APIs. The categorization of unknown bots is crucial for maintaining security, as it allows for the monitoring and analysis of bot behavior to identify potential threats and take appropriate actions.

In the context of Prisma Cloud and its emphasis on securing cloud-native applications, the differentiation between user-defined and unknown bots is significant. Prisma Cloud's approach to WAAS bot protection is designed to provide granular control over bot traffic, enabling organizations to distinguish between beneficial and harmful bot activities. This aligns with the broader goal of ensuring the security and integrity of web applications and APIs in a cloud environment, as highlighted in documents such as the "Prisma-Cloud-Visibility-and-Control-Qualification-Guide" and "Guide-to-CSPM-Tools-Email-Social -LP-Copy." These resources emphasize the importance of comprehensive security measures that include the management of bot traffic to protect against a wide range of web-based threats.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin/prisma-cloud-iam-security/integrate-prisma-cloud-with-okta

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin/configure-external-integrations-on-prisma-cloud#id24911ff9-c9ec-4503-bb3a-6cfce792a70d

Prisma Cloud includes built-in Role-Based Access Control (RBAC) permission groups to manage user access and permissions efficiently. Among the options, Group Membership Admin and Account Group Admin are two built-in RBAC permission groups. Group Membership Admins are responsible for managing user memberships within groups, while Account Group Admins have administrative privileges over specific account groups, allowing them to manage resources and policies within those groups. These roles help in delegating administrative tasks and enforcing the principle of least privilege.

To achieve immediate notification for "High Severity" alerts for a specific account group via Slack, the steps outlined in option A provide a comprehensive and effective approach. Firstly, configuring the Slack Integration establishes the necessary communication channel between Prisma Cloud and the Slack workspace. Creating an alert rule with the specified account group and severity filters ensures that only relevant alerts trigger notifications. Selecting Slack as the notification channel and setting the frequency to "As it Happens" ensures real-time alerting for critical issues. This method leverages Prisma Cloud's alerting capabilities and Slack's real-time messaging platform to promptly notify the security team, enabling swift action to mitigate risks. This approach is in line with Prisma Cloud's flexible and configurable alerting system, designed to integrate with various external platforms for efficient incident response.

Prisma Cloud Data Security supports various data storage types, including AWS S3 buckets (B). AWS S3 (Simple Storage Service) is a widely used object storage service that offers scalability, data availability, security, and performance. Prisma Cloud's ability to secure S3 buckets is crucial for organizations leveraging AWS for storage needs, as it ensures that data stored within these buckets is protected against unauthorized access, data breaches, and other security threats. Prisma Cloud provides comprehensive visibility into the data stored in S3 buckets, enabling data classification, compliance monitoring, and threat detection to safeguard sensitive data effectively.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/19-11/prisma-cloud-compute-edition-admin/firewalls/deploy_cnaf

When configuring Cloud Native Application Firewall (CNAF) rules, the specified port should be the one where the container itself listens for web traffic. In this scenario, since the NGINX container is listening on port 8080, the CNAF rule should be configured to protect traffic on port 8080. This ensures that the firewall rule is applied to the traffic intended for the container, regardless of the port mapping on the host.

The documentation from Palo Alto Networks provides guidance on deploying CNAF and specifies that the port in the firewall rule should match the container’s listening port, not the host’s mapped port. This is an important distinction for properly securing containerized applications with CNAF.

The purpose of Incident Explorer in Prisma Cloud Compute under the "Monitor" section is to provide a comprehensive view of incidents by correlating individual events. This helps identify potential attacks through a sequence of processes, file system, and network events, thereby giving a complete picture of an incident's timeline and impact.

https://docs.prismacloud.io/en/classic/compute-admin-guide/runtime-defense/incident-explorer

The correct RQL (Resource Query Language) that detected the vulnerability is:

config from cloud.resource where cloud.type = 'aws' and api.name = 'aws-iam-get-credential-report' AND json.rule = '(access_key_1_active is true and access_key_1_last_rotated != N/A and DateTime. ageInDays (access_key_1_last_rotated) > 90) or (access_key_2_active is true and access_key_2_last_rotated != N/A and _DateTime. ageInDays (access_key_2_last_rotated) > 90)'

This RQL is designed to check the age of the AWS IAM user's access keys to ensure that they are rotated within a recommended period, typically 90 days. If the access keys have not been rotated within this timeframe, it would be considered a security risk or vulnerability, as old keys may potentially be compromised. By enforcing access key rotation, it minimizes the risk of unauthorized access.

The reference for this type of policy check can be seen in cloud security best practices that advocate for regular rotation of access keys to minimize the potential impact of key compromise. CSPM tools like Prisma Cloud include such checks to automate compliance with these best practices.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin/manage-prisma-cloud-alerts/prisma-cloud-alert-notifications

After the Console has been upgraded, check and upgrade any of the Defenders that have reached the end of their support lifecycle (Defenders are backward compatible for N-2 releases). The Defender release image is built from the UBI8-minimal base image and on upgrade it is a full container image upgrade, which means that the old Defender container is replaced with a new container. Then, upgrade all other Prisma Cloud components, such as the Jenkins plugin. https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/upgrade/upgrade_process_saas

The runtime audit message indicating "DNS resolution of suspicious name wikipedia.com. type A" would appear as an audit because the DNS was not learned as part of the Container model or added to the DNS allow list (option A). In cloud security platforms like Prisma Cloud, runtime protection policies monitor the behavior of running containers and compare it against a learned model of expected behavior. If a container attempts to resolve a DNS name that was not observed during the learning phase or specifically allowed, it triggers an audit event to alert security teams of potentially malicious activity.

When creating a Config policy in Prisma Cloud and incorporating a JSON query, the correct place to add this query is under the "Build Your Rule (Build tab)" (Option E). This section allows users to define the criteria and conditions for the policy, including specifying JSON or RQL (Resource Query Language) queries that articulate the policy's logic. The "Details" (Option A) tab is typically used for general information about the policy, such as its name and description. The "Compliance Standards" (Option B) tab is for associating the policy with specific compliance frameworks. The "Remediation" (Option C) tab provides guidance on how to remediate any issues detected by the policy. The "Build Your Rule (Run tab)" (Option D) is not a standard option in Prisma Cloud policy configuration.

When automated remediation is enabled in Prisma Cloud, it is designed to address all applicable open alerts, regardless of when they were generated. The system automatically applies remediation actions to resolve the identified security issues or compliance violations that triggered the alerts. Once the remediation actions are successfully completed, the system updates the status of the affected alerts to "resolved," indicating that the security issues have been addressed. This feature helps streamline the remediation process, reducing the manual effort required by security teams and ensuring that security issues are promptly resolved to maintain the integrity and security of the cloud environment.

In Kubernetes environments, deploying Defenders to protect nodes involves leveraging DaemonSets, which ensure that every node in the cluster runs a copy of a specific pod. When the Console is running within a Kubernetes cluster, it's essential to correctly reference the Console service to ensure seamless communication between Defenders and the Console. Option A is the most straightforward and Kubernetes-native method for deploying Defenders. By choosing "twistlock-console" as the Console identifier on the deployment page within the Console, users can generate a DaemonSet configuration file tailored for the Twistlock namespace. This approach ensures that the Defenders are correctly configured to communicate with the Console, providing comprehensive security coverage across the Kubernetes nodes. This method aligns with best practices for deploying security agents in Kubernetes and is supported by Prisma Cloud (formerly Twistlock) documentation, which provides step-by-step instructions for deploying Defenders using DaemonSets.

For a runtime audit generated for a host with a message indicating a service attempting to obtain capability by executing a script, the root cause for this runtime audit is most likely related to D. Default rule that alerts on suspicious runtime behavior. This default rule is designed to flag unusual or potentially harmful activities that could indicate a security risk, prompting further investigation.

https://www.paloaltonetworks.com/blog/prisma-cloud/cloud-iac-build-policies/

To automate vulnerability scanning for images deployed to Fargate, the customer should set up a vulnerability scanner on the container registry where the images are stored before they are deployed. By scanning the images in the registry, any vulnerabilities can be identified and addressed before the images are used to create Fargate tasks. This proactive approach to vulnerability management is crucial in cloud-native environments to ensure that deployed containers are free from known vulnerabilities​​.

Prisma Cloud supports different scanning modes for its agentless scanning feature. Based on the context of cloud environments and typical terminology used in Prisma Cloud documentation, "Spoke Account Mode" and "Hub Account Mode" are plausible modes supported for agentless scanning. These modes allow for the extension of scanning capabilities across multiple accounts, with 'Spoke' typically referring to linked accounts and 'Hub' referring to the central account in a hub-and-spoke architecture. Hence, the correct answers are A and B.

https://prismacloud.ideas.aha.io/ideas

To submit an external new feature request for Prisma Cloud, users can utilize the Aha platform. By accessing the Palo Alto Networks Aha portal, users can submit their feature requests, suggest enhancements, and contribute to shaping the future of Prisma Cloud. Aha provides a structured way to collect and prioritize customer feedback, ensuring that valuable insights reach the product development teams.

For those seeking to propose new features or improvements, visiting the Aha portal and submitting their ideas is the recommended approach. It allows users to participate in the ongoing evolution of Prisma Cloud by sharing their requirements and vision for the platform

By default Prisma Cloud listens on: 8083 HTTPS management port for access to Console. 8084 WSS port for Defender to Console communication.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/19-11/prisma-cloud-compute-edition-admin/install/install_kubernetes

In a Kubernetes environment, the Admission Controller is a critical component responsible for approving, modifying, or rejecting administrative requests before they are processed by the Kubernetes API server. The Admission Controller acts as a gatekeeper, enforcing governance and policy controls by evaluating requests against a set of predefined rules and policies. It can validate and mutate requests, ensuring that only compliant and authorized changes are allowed to proceed. This capability is vital for maintaining the security and integrity of the Kubernetes cluster, as it can prevent unauthorized or potentially harmful actions from being executed, thus playing a key role in the cluster's overall security posture.

To configure serverless scanning in a cloud security platform like Prisma Cloud, the system needs to know where (Region) the serverless functions are deployed, how to access them (Credential), and on which cloud platform they are running (Provider). These settings ensure that the scanning tool can accurately locate and authenticate to the serverless functions across different cloud environments for vulnerability assessment. This aligns with the principle of providing comprehensive visibility and consistent security across multi-cloud environments as outlined in the "Guide to Cloud Security Posture Management Tools" document​​.

Log in to your Okta administrator panel.

Add an administrator role.

Generate an API token.

Configure Okta with Prisma Cloud.

Run the IAM queries for Okta.

When integrating Okta with Prisma Cloud, especially in the context of Cloud Infrastructure Entitlement Management (CIEM) or Single Sign-On (SSO) integration, the process must be conducted in a sequence that establishes the necessary permissions and configurations for successful integration.

The first step is to log in to the Okta administrator panel. This is where you will manage your Okta settings and begin the integration process.

Once logged in, the next step is to add an administrator role. This involves assigning a role within Okta that has the appropriate permissions to create and manage API tokens and to perform integration tasks.

After setting up the correct administrative role, the third step is to generate an API token. This token will be used to authenticate the communications between Okta and Prisma Cloud. The API token acts as a secure method of verifying that requests made to Prisma Cloud are authorized.

With the API token generated, the fourth step is to configure Okta with Prisma Cloud. This step typically involves entering the API token into Prisma Cloud and setting up the necessary configurations within Prisma Cloud to recognize and accept authentication requests from Okta.

The final step is to run the Identity and Access Management (IAM) queries for Okta within Prisma Cloud. This step is crucial for CIEM, as it allows Prisma Cloud to query Okta for identity information, user roles, and entitlements, ensuring that the correct permissions are enforced across the cloud environment and that SSO is functioning correctly.

Following these steps in order will ensure that Okta is properly integrated with Prisma Cloud, providing a secure and efficient method for managing cloud access and entitlements.

The attempted bytes count in Prisma Cloud's context refers to the amount of traffic that is either denied by security group or firewall rules, or the traffic that was reset by a host or virtual machine (VM) that received the packet and responded with a RST (Reset) packet (A). This metric is crucial for understanding the nature of blocked or interrupted traffic within the cloud environment, helping administrators identify potential security threats or misconfigurations that may be preventing legitimate traffic. It encompasses both the traffic actively blocked by security controls and the traffic that the receiving entity deemed invalid or unwanted, thus providing a comprehensive view of the network's defensive posture.

Prisma Cloud, developed by Palo Alto Networks, is known for its comprehensive cloud security capabilities across various cloud service providers (CSPs). The integration and support extend to major CSPs, including AWS (Amazon Web Services), Azure (Microsoft's Cloud), GCP (Google Cloud Platform), Oracle Cloud, and Alibaba Cloud. This wide range of support ensures that organizations leveraging multi-cloud environments can maintain consistent security postures across all their cloud assets. The information regarding supported CSPs by Prisma Cloud can typically be found in their official documentation and release notes, which detail the features, integrations, and enhancements specific to each CSP.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/access_control/rbac

In Prisma Cloud, to notify the InfoSec team via email about misconfigured Security Groups, the appropriate tab to use is "Alert Rules." Alert rules in Prisma Cloud define the conditions under which alerts are generated and the notification channels, including email, where these alerts are sent. By configuring alert rules related to Security Group misconfigurations, the platform can automatically notify the team when such an event occurs, ensuring prompt awareness and response to potential security issues​​.

Prisma Cloud Compute Compliance enforcement for hosts covers several aspects to ensure a secure and compliant host environment, particularly within containerized environments. These include:

Docker daemon configuration files: Ensuring that Docker daemon configuration files are set up according to best security practices is crucial. These files contain various settings that control the behavior of the Docker daemon, and misconfigurations can lead to security vulnerabilities.

Docker daemon configuration: Beyond just the configuration files, the overall configuration of the Docker daemon itself is critical. This encompasses runtime settings and command-line options that determine how Docker containers are executed and managed on the host.

Host configuration: The security of the underlying host on which Docker and other container runtimes are installed is paramount. This includes the configuration of the host's operating system, network settings, file permissions, and other system-level settings that can impact the security of the containerized applications running on top.

By focusing on these areas, Prisma Cloud ensures that not just the containers but also the environment they run in is secure, adhering to compliance standards and best practices to mitigate risks associated with containerized deployments.

In the Prisma Cloud Web-Application and API Security (WAAS) rules, protections against OWASP-recognized vulnerabilities like Local file inclusion, SQL injection, and Shellshock are included. Local file inclusion involves unauthorized access to files on the server, potentially leading to sensitive information disclosure. SQL injection targets data-driven applications by inserting malicious SQL statements into an entry field, while Shellshock exploits vulnerabilities in Bash, a widely used Unix shell, to execute arbitrary commands. These protections are part of Prisma Cloud's comprehensive approach to securing web applications and APIs against common and severe vulnerabilities.

https://www.paloaltonetworks.com/content/dam/pan/en_US/images/prisma/owasp-top-10-protection-2.png?imwidth=3840 OWASP Top-10 Coverage - Protection against most critical security risks to web applications, including injection flaws, broken authentication, broken access control, security misconfigurations, etc.

To specifically target running containers with a Cloud Native Application Framework (CNAF) policy in Prisma Cloud, the administrator should scope the policy to Image names. By doing so, the policy will apply to containers based on the images they were created from, allowing for precise targeting of security policies to specific containers. This approach is part of Prisma Cloud's capabilities to provide granular security controls for containerized environments, ensuring that policies are effectively applied to the relevant containers​​.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/waas/deploy_waas/deployment_containers

The correct RQL to trigger the audit event activity shown is Option A. This RQL is designed to capture events from cloud audit logs where a ConsoleLogin operation occurs by the 'root' user. The given audit event details match this RQL's criteria, which specifies the operation type and the user involved in the event.

To protect the pods hosting a web front end from Layer 7 attacks, the development team should create a Web Application and API Security (WAAS) rule targeted at the image name of the pods. This approach allows the policy to specifically protect the applications running within the pods against sophisticated attacks that target the application layer.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/waas/deploy_waas

VM image scanning is a critical component of cloud security, allowing organizations to identify vulnerabilities within virtual machine images before deployment. The three major public cloud providers supported for VM image scanning are Google Cloud Platform (GCP), Amazon Web Services (AWS), and Microsoft Azure. These platforms offer extensive infrastructure services and are commonly used in various industries, making them primary targets for VM image scanning integration.

GCP, AWS, and Azure each provide capabilities to store, manage, and deploy VM images through their respective services such as Google Compute Engine, AWS EC2, and Azure Virtual Machines. By integrating VM image scanning with these services, organizations can ensure that their VM images are free from known vulnerabilities and comply with security best practices before being deployed in the cloud environment.

This approach to VM image scanning is consistent with Prisma Cloud's comprehensive security strategy, which emphasizes the importance of securing cloud workloads across the entire development lifecycle. By supporting VM image scanning across GCP, AWS, and Azure, Prisma Cloud enables organizations to maintain a consistent security posture across multiple cloud environments, mitigating the risk of deploying vulnerable or misconfigured VM images that could lead to security breaches.

To protect pods in an environment from Cross-Site Scripting (XSS) attacks, the development team should create a Container Cloud Native Application Firewall (CNAF) policy. This policy should be targeted at the specific resource (e.g., a particular pod or set of pods), with the option for XSS protection checked, and the action set to "prevent." This configuration ensures that any XSS attacks directed at the targeted containers are effectively blocked.

To ensure that sensitive data such as SSNs and credit card numbers are not visible in Dashboard > Data view during investigations, the correct method is to go to Settings > Data > Snippet Masking and select Full Mask (A). This feature in Prisma Cloud allows administrators to mask sensitive data snippets within the dashboard, ensuring that such information is obfuscated and not exposed to unauthorized viewers. Full Masking provides a robust level of protection by completely hiding the sensitive values, thereby enhancing data privacy and compliance with regulations that mandate the protection of personal and financial information.

In Prisma Cloud, the Defender type responsible for performing registry scanning is the Container Defender. Registry scanning is crucial for ensuring that container images stored in registries are free from vulnerabilities and compliance issues before they are deployed. Container Defenders scan images within container registries, identifying security risks and ensuring that only secure container images are used in deployment, thereby maintaining the integrity and security of containerized applications.

The Defender type "Container Defender - Linux" in Prisma Cloud is typically deployed as a container. This deployment method allows the Defender to integrate seamlessly into containerized environments, providing runtime protection and monitoring for container activities. By running as a container, the Container Defender can leverage the native capabilities of the container orchestration platform, such as Kubernetes, to provide security features like threat detection, vulnerability management, and compliance enforcement within the containerized environment. This approach ensures that the security protections are closely aligned with the dynamic and scalable nature of containerized applications.

In Prisma Cloud Enterprise, for alerts to be generated for configuration assets in an onboarded public cloud account, it is essential that the account is associated with an alert rule that matches the enabled config policies. If the account is not linked to an alert rule or if the existing alert rules do not match the config policies, no alerts will be generated even though configuration resource ingestion is visible, and RQL statements return config resource results. This requirement emphasizes the need for a well-structured alerting mechanism to ensure that security incidents are promptly identified and addressed​​.

The Adoption Advisor uses four categories to measure adoption progress for Cloud Security Posture Management: Visibility, Compliance, Governance, and Threat Detection and Response. Visibility helps to identify the resources in the environment and to ensure that security controls are in place. Compliance helps to ensure that the environment is meeting regulatory and industry standards. Governance helps to ensure that the environment is secure and managed according to policy. Threat Detection and Response helps to detect and respond to threats quickly and effectively.

The Adoption Advisor in Prisma Cloud uses categories such as Visibility, Compliance, Governance, and Threat Detection and Response to measure adoption progress for Cloud Security Posture Management (CSPM). These categories represent key areas of focus for effectively managing and securing cloud environments. Visibility refers to the ability to see and understand all cloud resources and their configurations. Compliance involves ensuring that cloud resources comply with regulatory standards and best practices. Governance encompasses the policies and procedures that control cloud resource usage and security. Threat Detection and Response involves identifying and mitigating security threats to the cloud environment. By measuring adoption progress across these categories, organizations can assess how well they are utilizing CSPM capabilities to secure their cloud environments.

The question focuses on valid host compliance policies within a cloud environment. Among the given options, the most relevant to host compliance is ensuring compliant Docker daemon configuration. Docker daemon configurations are critical for securing the host environment where containers are run. A compliant Docker daemon configuration involves setting security-related options to ensure the Docker engine operates securely. This can include configurations related to TLS for secure communication, logging levels, authorization plugins, and user namespace remapping for isolation.

Ensuring functions are not overly permissive (Option A) and ensuring images are created with a non-root user (Option C) are more directly related to the security best practices for serverless functions and container images, respectively, rather than host-specific compliance checks. Ensuring host devices are not directly exposed to containers (Option B) is also important for security, but it falls under the broader category of container runtime security rather than host-specific compliance.

Thus, the most valid host compliance policy from the given options is to ensure a compliant Docker daemon configuration, as it directly impacts the security posture of the host environment in a containerized infrastructure. This aligns with best practices for securing Docker environments and is a common recommendation in container security guidelines, including those from Docker and cybersecurity frameworks.

Palo Alto Networks’ Enterprise DLP service and provides data classification that includes built-in data profiles with data patterns that match sensitive information such as PII, health care, financial information and Intellectual Property. In addition to protecting your confidential and sensitive data, your data is also protected against threats—known and unknown (zero-day) malware—using the Palo Alto Networks’ WildFire service.

https://docs.prismacloud.io/en/compute-edition/31/admin-guide/configure/disaster-recovery

In scenarios where a backup is created manually before upgrading a self-hosted console, it is crucial to restore the system using the backup that matches the version of the Prisma Cloud Self-Hosted Console from which it was taken. This ensures compatibility and integrity of the data and configurations. Using a backup with a different version of the console may lead to inconsistencies or loss of information due to potential changes in the software's data structures or features between versions. Therefore, to ensure a successful restoration, the backup must be applied to the same version of the Prisma Cloud Self-Hosted Console that it was created from.

Regarding the use of access keys, it is correct that up to two access keys can be active at any time for a single IAM user in AWS, and access keys are used for programmatic API calls to AWS services. This allows for rotation of keys without immediate invalidation of the old key and ensures secure access to AWS services via APIs.

To assign a new policy to a compliance standard in Prisma Cloud, the administrator needs to edit the policy and navigate to the step where compliance standards are managed. By clicking the '+' button, the administrator can add the policy to a specific compliance standard, provide necessary details, and confirm the assignment. This integrates the custom policy into the chosen compliance standard, ensuring that compliance checks include the newly defined policy criteria.

The Prisma Cloud Compute Edition is identified as B. Downloadable, self-hosted software. This option indicates that Prisma Cloud Compute Edition is a solution that organizations can deploy within their own infrastructure, providing them with control over the installation, configuration, and management of the security platform.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/vulnerability_management/vuln_management_rules

Configuring vulnerability policies within Prisma Cloud involves several options that cater to different aspects of vulnerability management and policy enforcement. Options A, C, and D are valid configurations for vulnerability policies:

A. Individual actions based on package type allow for tailored responses to vulnerabilities found in specific types of software packages, enabling more granular control over the remediation process.

C. Applying policies only when a vendor fix is available helps prioritize the remediation of vulnerabilities for which a patch or update has been released by the software vendor, ensuring efficient use of resources in addressing the most actionable security issues.

D. Setting individual grace periods for each severity level allows organizations to define different time frames for addressing vulnerabilities based on their severity, enabling a prioritized and risk-based approach to vulnerability management.

These configurations support a comprehensive vulnerability management strategy by allowing customization and prioritization based on the nature of the vulnerability, the availability of fixes, and the risk level associated with each vulnerability.

In the MITRE ATT&CK framework, the tactic "Exploit Public-Facing Application" is categorized under Initial Access. This tactic involves leveraging vulnerabilities in public-facing applications to gain unauthorized access to an organization's external services or applications. Initial Access tactics are concerned with the methods adversaries use to gain an initial foothold within a network, and exploiting public-facing applications is a common approach used by attackers to breach external defenses and establish a presence within a target network.

In Azure, to enable Prisma Cloud to calculate net effective permissions across Management Groups, the necessary permission is "Microsoft.Management/managementGroups/descendants/read." This permission grants Prisma Cloud the ability to read the management group hierarchy and the related details, allowing for a comprehensive analysis of the effective permissions applied across different levels of the management group structure. By having this level of access, Prisma Cloud can accurately assess and report on the permissions assigned to various resources and identities within the Azure environment, facilitating better security and compliance management.

To enable a user to interact programmatically with Prisma Cloud APIs and for a nonhuman entity to access keys, the correct action is to create a role and assign it to the Service Account (D). Service accounts in Prisma Cloud are designed for programmatic access by applications or automated tools, allowing these entities to interact with Prisma Cloud APIs securely. By creating a specific role with the necessary permissions and assigning it to a service account, administrators can ensure that the entity has the appropriate level of access required for its operations, aligning with the principle of least privilege and enhancing the security posture of API interactions.

When a Prisma Cloud administrator is onboarding a single GCP project to Prisma Cloud, the Terraform script can perform several steps to facilitate this integration. The steps include B. create the Prisma Cloud role, which is essential for defining the permissions and capabilities that Prisma Cloud will have within the GCP environment, and C. enable the required APIs for Prisma Cloud, ensuring that Prisma Cloud can access the necessary GCP services and features for comprehensive cloud security management.

In the context of Kubernetes, an admission controller is a piece of code that intercepts requests to the Kubernetes API server before the persistence of the object, but after the request is authenticated and authorized. The admission controller lets you apply complex validation and policy controls to objects before they are created or updated.

The ValidatingWebhookConfiguration is a Kubernetes object that tells the API server to send an admission validation request to a service (the admission webhook) when a request to create, update, or delete a Kubernetes object matches the rules defined in the configuration. The webhook can then approve or deny the request based on custom logic.

The MutatingWebhookConfiguration is similar but is used to modify objects before they are created or updated, which is not the primary function of an admission controller acting in a protective or validating capacity.

DestinationRules are related to Istio service mesh and are not relevant to Kubernetes admission control.

PodSecurityPolicies (PSPs) are a type of admission controller in Kubernetes but they are predefined by Kubernetes and do not require a specific configuration object like ValidatingWebhookConfiguration. PSPs are also deprecated in recent versions of Kubernetes.

Therefore, the correct answer is C. ValidatingWebhookConfiguration, as it is the Kubernetes object used to configure admission webhooks for validating requests, which aligns with the role of Defender acting as an admission controller in Prisma Cloud.

References from the provided documents:

The documents uploaded do not contain specific details about Kubernetes objects or Prisma Cloud's integration with Kubernetes. However, this explanation aligns with general Kubernetes practices and Prisma Cloud's capabilities in securing Kubernetes environments.

bat --> Data Classification

apk --> Malware Scanning

vb --> Data Classification

py --> Data Classification

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin/prisma-cloud-data-security/monitor-data-security-scan-prisma-cloud/supported-file-extensions

Prisma Cloud Data Security (PCDS) supports various file types for malware scanning, including .apk files, which are Android Package files used for installing applications on Android operating systems. This support is crucial for ensuring that applications deployed on or distributed through Android devices are free from malware and safe for user installation.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/waas/waas_dos_protection

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/continuous_integration/jenkins_plugin.html

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/continuous_integration/jenkins_pipeline_project

To scan container images in Jenkins pipelines, Prisma Cloud offers two specific tools:

D. Twistcli: This is a command-line interface tool provided by Prisma Cloud that allows users to scan container images for vulnerabilities and compliance issues. It can be integrated into Jenkins pipelines to automate the scanning process as part of the CI/CD workflow1.

E. Compute Jenkins plugin: This plugin integrates Prisma Cloud’s capabilities directly into Jenkins, enabling automated scanning of container images during the build process. It provides a seamless way to include security checks within the Jenkins pipeline1.

Both Twistcli and the Compute Jenkins plugin are designed to work within the Jenkins environment to ensure that container images are scanned for security risks before they are deployed. By integrating these tools into the pipeline, developers can identify and address vulnerabilities early in the development cycle, contributing to a more secure software delivery process

Prisma Cloud enables you to send notifications for new code and CI/CD security issues detected during periodic scans of your environments to messaging systems that you have integrated with Prisma Cloud. Supported messaging systems include Microsoft Teams, Slack, Splunk, JIRA, ServiceNow notification systems, as well as for webhooks.

https://docs.prismacloud.io/en/classic/appsec-admin-guide/get-started/finetune-configuration-settings/enable-notifications

In the context of Defend > Compliance > Containers and Images > CI within Prisma Cloud by Palo Alto Networks, the compliance checks are focused on the security posture and compliance of container images. Therefore, the type of compliance check available under this section would be related to Images, ensuring they adhere to security best practices and compliance standards before being deployed.

https://api.prismacloud.io/compliance Add Compliance Standard https://api.prismacloud.io/compliance/complianceld/requirement Add Compliance Requirement https://api.prismacloud.io/compliance/requirementld/section Add Compliance Requirement Section https://pan.dev/prisma-cloud/api/cspm/get-all-standards/

To restrict any container from resolving the name www.evil-url.com, the administrator should set www.evil-url.com as a blocklisted DNS name in the default Container policy and set the effect to prevent. This configuration in Prisma Cloud, or similar CSPM tools, ensures that any attempt to resolve the specified blocklisted DNS name within any container will be prevented, thus enhancing security by proactively blocking potential communication with known malicious domains.

Reference to this feature can be found in the documentation of CSPM tools that offer runtime protection for containers. These tools allow administrators to define security policies that can include DNS-based controls to prevent containers from accessing known malicious or undesirable URLs, thereby preventing potential data exfiltration, malware communication, or other security threats

Under Web-Application and API Security (WAAS) bot protection in Prisma Cloud, unknown bots are categorized based on their behavior and characteristics. Web scrapers and HTTP libraries fall into the category of unknown bots. Web scrapers are automated scripts or programs that extract data from websites, often without permission, while HTTP libraries are tools used for making HTTP requests. Both can be used benignly but may also be employed in malicious activities, hence their classification as unknown bots requiring further analysis.

The response from Jihe would be correct if this wasn't be run from within the container. In the question, we are running from inside the container, and therefor there is no need to specify an image/tarball. https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/tools/twistcli_scan_image Further down in the documentation linked by Jihe, there is a section that shows the proper syntax when running twistcli from within a container. The example there is almost a perfect copy of this question. Spippolo has the correct response.

$ docker run \

-v /PATH/TO/TWISTCLI_DIR:/tools \

-e TW_TOKEN= \

-e TW_CONSOLE= \

--entrypoint="" \

\

/tools/twistcli images scan \

--containerized \

--details \

--address $TW_CONSOLE \

--token $TW_TOKEN \

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/tools/twistcli_scan_images

In WAAS Access control for file uploads, Prisma Cloud supports various file types out-of-the-box to ensure secure and controlled file upload functionality. The supported file types include Text, Images, and Documents. These categories cover a wide range of commonly used file formats, allowing organizations to manage and restrict file uploads based on the content type. This feature helps in preventing malicious file uploads and ensures that only approved file types are uploaded to applications and services.

The Run policies monitor resources and check for potential issues once these cloud resources are deployed Build policies enable you to check for security misconfigurations in the IaC templates and ensure that these issues do not make their way into production. https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin/prisma-cloud-policies/create-a-policy

B. Build policies: These are designed to identify insecure configurations in your Infrastructure as Code (IaC) templates, such as AWS CloudFormation, HashiCorp Terraform, and Kubernetes App manifests. The goal of build policies is to detect security issues early in the development process, before the actual resources are deployed in runtime environments. This helps ensure that security issues are identified and remediated before they can affect production1.

D. Run policies: These policies are focused on monitoring the deployed cloud resources and checking for potential issues during their operation. Run policies are essential for ongoing security and compliance in the production environment, as they provide visibility into the actual state of resources and their activities1.

Run and Network policies (A) are indeed part of the configuration policy set, but they do not highlight the difference between build and run policies. Similarly, while Run policies do monitor network activities ©, this statement does not contrast them with Build policies.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/22-06/prisma-cloud-compute-edition-admin/install/install_defender/install_host_defender

https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin/prisma-cloud-policies/anomaly-policies

An Anomaly policy in Prisma Cloud is designed to provide information about connections from suspicious IPs in a customer database. Anomaly policies are used to detect and alert on unusual activities that deviate from the norm, which can include traffic from known malicious or suspicious IP addresses. These policies help in identifying potential security threats by monitoring for activities that are out of the ordinary, such as unexpected access to a database from an IP address that has not been seen before or is known to be associated with malicious activities.

The documentation link you provided offers detailed guidance on how to configure and manage anomaly policies in Prisma Cloud, ensuring that users can effectively monitor their environments for potential security incidents.

Kubernetes, Openshift, ECS https://docs.paloaltonetworks.com/prisma/prisma-cloud/prisma-cloud-admin-compute/install/deploy-defender/orchestrator

Prisma Cloud supports integration with multiple orchestrators to facilitate the deployment of its Defender component in various environments. The supported orchestrators include Red Hat OpenShift, Amazon ECS, and Kubernetes. These platforms are supported because they provide robust environments for container orchestration, allowing Prisma Cloud to efficiently manage security operations across different cloud-native technologies.

The external ID plays a crucial role when onboarding a new Amazon Web Services (AWS) account in Prisma Cloud. It serves as a UUID (Universally Unique Identifier) that establishes a trust relationship between the Prisma Cloud account and the AWS account. This trust relationship is essential for allowing Prisma Cloud to securely extract data and perform security monitoring and compliance checks within the AWS environment. The use of an external ID ensures that Prisma Cloud can access the necessary information from the AWS account without compromising the security of the AWS account's credentials, adhering to the principle of least privilege and enhancing the overall security posture.

In Prisma Cloud, policies set under "Defend > Vulnerability > Images > Deployed" are specifically designed to apply at runtime, i.e., when a container is instantiated from an image. This ensures that any image, regardless of its point of origin or creation time, is evaluated against the defined vulnerability policies at the time it is deployed as a container in the environment. This runtime enforcement is crucial for catching vulnerabilities that may not have been present or detected during the image build phase, providing an additional layer of security for running applications​​.

https://docs.paloaltonetworks.com/prisma/prisma-cloud/22-12/prisma-cloud-compute-edition-admin/vulnerability_management/vuln_management_rules