CyberArk SECRET-SEN CyberArk Sentry Secrets Manager Exam Practice Test

When an account or Safe is renamed in the Vault, the Vault Conjur Synchronizer will create new variables in Conjur with the new name and delete the old variables with the old name. This means that the permissions that were granted to the old variables in Conjur will not apply to the new variables, and they will need to be recreated using delegation policies. Otherwise, the users or hosts that had access to the old variables will not be able to access the new ones. References: Manage Accounts and Safes During Synchronization; Vault Synchronizer full policy guide

According to the CyberArk Sentry Secrets Manager documentation1, the steps to failback to the primary site after a manual failover to the disaster recovery site are as follows:

• On the DR site, stop the Conjur Leader node using the command docker stop .
• On the primary site, generate a seed for the new Leader node using the command evoke seed leader . This will create a file named .tar in the current directory.
• On the primary site, copy the Leader seed file to the new Leader server using the command scp .tar :.tar
• On the new Leader server, create a new container using the same name as the one you just stopped, and load the Leader seed file using the command docker run --name -d --restart=always -v /var/log/conjur:/var/log/conjur -v /opt/conjur/backup:/opt/conjur/backup -p "443:443" -p "5432:5432" -p "1999:1999" cyberark/conjur:latest seed fetch .tar
• On the new Leader server, configure the Conjur Leader node using the command evoke configure leader -h -p
• On the new Leader server, reconfigure the Vault Conjur Synchronizer to point to the new Conjur Leader using the command evoke vault sync set
• On the DR site, generate a seed for the new Standby node using the command evoke seed standby . This will create a file named .tar in the current directory.
• On the DR site, copy the Standby seed file to the new Standby server using the command scp .tar :.tar
• On the new Standby server, create a new container using the same name as the one you just stopped, and load the Standby seed file using the command docker run --name -d --restart=always -v /var/log/conjur:/var/log/conjur -v /opt/conjur/backup:/opt/conjur/backup -p "443:443" -p "5432:5432" -p "1999:1999" cyberark/conjur:latest seed fetch .tar
• On the new Standby server, re-enroll the node to the cluster using the command evoke cluster enroll

The other options are not correct, as they are either unnecessary or incorrect. Contacting CyberArk for a new license file is not required, as the license is valid for both sites. Reconfiguring the Vault Conjur Synchronizer to point to the new Conjur Leader is a step that should be done on the new Leader server, not on the DR site. Triggering autofailover to promote the Standby in Site A to Leader is not possible, as the Standby node is not aware of the manual failover and will not accept the promotion request.

Credential Providers are tools that enable applications to securely retrieve credentials from CyberArk Secrets Manager without hard-coding or storing them in files. Credential Providers can be installed on application servers or on a central server that acts as a proxy for multiple applications. Credential Providers can integrate with Privileged Cloud, which is a cloud-based solution that provides privileged access management as a service. Privileged Cloud integrates with Secrets Manager Credential Providers to manage application credentials as privileged accounts within Privileged Cloud.

When working with Credential Providers in a Privileged Cloud setting, a special consideration is that if there are installation issues, troubleshooting may need to involve the Privileged Cloud support team. This is because the installation of Credential Providers in a Privileged Cloud setting requires some additional steps and configurations that are performed by the Privileged Cloud support team. For example, the Privileged Cloud support team needs to configure the connection between Privileged Cloud and Credential Providers, and provide the necessary certificates and keys for secure communication. Therefore, if there are any problems or errors during the installation process, the Privileged Cloud support team may need to assist with the troubleshooting and resolution.

The other options are not correct. Credential Providers are supported in a Privileged Cloud setting, as described in the Secrets Manager Credential Providers integration documentation1. The AWS Cloud account number does not need to be defined in the file main appprovider.conf.. found in the AppProviderConf Safe. This file is used to configure the Credential Provider settings, such as the Privileged Cloud URL, the application ID, and the SSL options. The AWS Cloud account number is not relevant for this file. Debug logging for Credential Providers deployed in a Privileged Cloud setting can be enabled or disabled by the Privileged Cloud support team, as described in the Credential Provider installation documentation2. Debug logging can help with troubleshooting and diagnostics, but it does not necessarily exhaust available disk space, as the log files can be rotated and archived.

References = Secrets Manager Credential Providers integration; Credential Provider installation

= Summon is a command-line tool that provides on-demand secrets access for common DevOps tools. It reads a file in secrets.yml format and injects secrets as environment variables into any process. The secrets.yml file is where you define which secrets to retrieve from a trusted store, such as CyberArk Secrets Manager. The secrets.yml file specifies the name and location of each secret, as well as the environment variable to assign it to. For example, a secrets.yml file could look like this:

DB_USERNAME: !var dev/my-app/db-username DB_PASSWORD: !var dev/my-app/db-password

This means that Summon will fetch the values of dev/my-app/db-username and dev/my-app/db-password from the trusted store, and assign them to the environment variables DB_USERNAME and DB_PASSWORD, respectively. Then, Summon will run the specified process with these environment variables set, and remove them once the process exits. This way, Summon enables secure and convenient access to secrets without exposing them in plain text or storing them in files.

References = Summon by cyberark - GitHub Pages; Using Summon to Manage Secrets as You Move From Dev to Prod

Based on the image you sent, the correct network port to its function in Conjur are:

• 22: required for SSH access
• 443: TLS endpoint for Conjur UI and API
• 444: HTTP health endpoint: simplifies load balancer setup
• 1999: audit events are streamed from the Follower to the Leader (using syslog-ng)
• 5432: required for data replication from the Leader to Standbys and Followers (PostgreSQL)

These are the standard ports and protocols used by the Conjur components to communicate with each other and with external clients. The ports can be customized according to the network and security requirements of the organization. These ports are documented in the CyberArk Secrets Manager documentation1 and the CyberArk Secrets Manager training course2.

C. docker exec evoke ca import – –no-restart

This is the correct command to import the root CA certificate into Conjur. The evoke ca import command is used to import a certificate authority (CA) certificate into the Conjur appliance. The certificate can be either a root CA or an intermediate CA. The – –no-restart option prevents the Conjur appliance from restarting after importing the certificate. The parameter specifies the path and name of the root CA certificate file to be imported. This command will add the root CA certificate to the trusted CA store of the Conjur appliance, which is used to validate the certificates of the clients and servers that communicate with Conjur. This command is documented in the Conjur documentation1 and the Conjur training course2.

The other options are not correct commands to import the root CA certificate into Conjur. The evoke import command does not exist. The – –root option is not a valid option for the evoke ca import command. The ca import command is not a valid docker exec command.

 The correct order of the steps is:

• Define the Application with the desired authentication details
• Add the Application ID and Application Provider ID to the safe with appropriate permissions
• Configure application to call the appropriate REST API to retrieve the secret and test

Explanation: To allow an application to retrieve a secret with the CCP, the following steps are required:

• Define the Application with the desired authentication details: This step involves creating an Application object in the Vault with a unique Application ID and an Application Provider ID. The Application Provider ID is used to identify the CCP instance that will serve the request. The Application object also defines the authentication method and parameters that the application will use to connect to the CCP, such as certificate, password, or AppRole.
• Add the Application ID and Application Provider ID to the safe with appropriate permissions: This step involves granting the Application object the necessary permissions to access the safe and the secret that it needs. The Application ID and the Application Provider ID are added as members of the safe with at least List and Retrieve permissions. The secret name or ID can also be specified as a restriction to limit the access to a specific secret within the safe.
• Configure application to call the appropriate REST API to retrieve the secret and test: This step involves configuring the application to send a REST API request to the CCP endpoint with the required parameters, such as the Application ID, the Application Provider ID, the safe name, and the secret name or ID. The application should also provide the authentication credentials or token that match the method defined in the Application object. The application should receive a JSON response from the CCP with the secret value and other metadata. The application should test the connection and the secret retrieval before deploying to production.

References:

• CyberArk Secrets Manager
• Sentry - Secrets Manager - Sample Items & Study Guide
• Sentry - Secrets
• Secrets Management Essentials for Developers

References:

• CyberArk Sentry Secrets Manager documentation: https://docs.cyberark.com/Portal/Content/Resources/_TopNav/cc_Portal.htm
• CyberArk Sentry Secrets Manager course materials: https://training.cyberark.com/learn
• CyberArk whitepapers and technical resources: https://www.cyberark.com/resources/home/cyberark-secrets-manager

• The authentication flow begins with the requester presenting their credentials to Conjur. This can be in the form of a username and password, an API key, or another supported method.
• Conjur verifies the presented credentials against its internal database. If the credentials are valid, Conjur generates and returns a short-lived access token to the requester.
• The requester includes the access token with every subsequent request to access Conjur resources. This allows Conjur to identify the requester and authorize their access to specific secrets and functionalities based on configured policies.
• Finally, each request is evaluated against the Conjur RBAC (Role-Based Access Control) rules defined in its policy. These rules determine which users and roles have access to specific resources and what actions they can perform. Only requests that comply with these rules are granted access.

This is the correct answer because the log file shows the error message “CEADBR009E Failed to load policy through SDK” and the exception message “The number of LOBs exceeds the limit”. This indicates that the Vault Conjur Synchronizer service (Synchronizer) encountered a problem when trying to sync the secrets from the CyberArk Vault to the Conjur database using the Conjur SDK. The Conjur SDK is a library that allows the Synchronizer to interact with the Conjur REST API and perform operations on the Conjur resources, such as roles, policies, secrets, and audit records. The number of LOBs refers to the number of lines of business (LOBs) that are configured in the Synchronizer. A LOB is a logical grouping of secrets that belong to a specific business unit or function. Each LOB has its own configuration file that specifies the source safe, the target policy, and the mapping rules for the secrets. The Synchronizer can sync multiple LOBs concurrently using multiple threads. However, there is a limit on the number of threads that the Synchronizer can use, which depends on the hardware and software specifications of the Synchronizer machine. If the number of LOBs exceeds the number of threads, the Synchronizer will not be able to sync all the LOBs and will generate an error. This answer is based on the CyberArk Secrets Manager documentation and the CyberArk Secrets Manager training course.

• Create an authenticator policy for each authenticator and then load the policy to Conjur.
• Add each authenticator to conjur.yml using this format: .
• Execute evoke configuration apply.

Comprehensive Explanation: Authenticators are plugins that enable Conjur to authenticate requests from different types of clients, such as Kubernetes, Azure, or LDAP. To configure authenticators, you need to follow these steps:

• Create an authenticator policy for each authenticator and then load the policy to Conjur. This step defines the authenticator as a resource in Conjur and grants permissions to the users or hosts that can use it. You can use the policy templates provided by Conjur for each authenticator type, or create your own custom policy. For more information, see Define Authenticator Policy.
• Add each authenticator to conjur.yml using this format: . This step enables the authenticator service on the Conjur server and specifies the service ID that identifies the authenticator instance. The service ID must match the one used in the policy. For more information, see Enable Authenticators.
• Execute evoke configuration apply. This step applies the changes made to the conjur.yml file and restarts the Conjur service. This is necessary for the authenticator configuration to take effect. For more information, see Apply Configuration Changes.

References: The steps to configure authenticators are explained in detail in the Configure Authenticators section of the CyberArk Conjur Enterprise documentation. The image in the question is taken from the same source.

According to the CyberArk Sentry Secrets Manager documentation, Conjur is a secrets management solution that consists of a leader node and one or more follower nodes. The leader node is responsible for managing the secrets, policies, and audit records, while the follower nodes are read-only replicas that can serve secrets requests from applications. Additionally, Conjur supports a standby node, which is a special type of follower node that can be promoted to a leader node in case of a leader failure. A standby node is synchronized with the leader node and can take over its role in a disaster recovery scenario. A possible Conjur node role change is when a standby node is promoted to a leader node, either manually or automatically, using the auto-failover feature. A follower node cannot be promoted to a leader node, as it does not have the same data and functionality as the leader node. A standby node cannot be promoted to a follower node, as it already has the same capabilities as a follower node, plus the ability to become a leader node. A leader node cannot be demoted to a standby node in the event of a failover, as it would lose its data and functionality and would not be able to resume its role as a leader node. References: 1: Conjur Architecture 2: Deploying Conjur on AWS 3: Auto-failover

The most likely cause for this issue is A. The application ID or Application Provider does not have the correct permissions on the safe. The CyberArk Central Credential Provider (CCP) is a web service that enables applications to retrieve secrets from the CyberArk Vault using REST API calls. The CCP requires an application ID or an Application Provider to authenticate and authorize the application before returning the requested secret. The application ID or Application Provider must have the Retrieve and List permissions on the safe where the secret is stored, otherwise the CCP will not be able to find the matching secret and will return an error.

To resolve this issue, you should verify that the application ID or Application Provider has the correct permissions on the safe, and that the safe name and object name are correctly specified in the REST API call. You can use the CyberArk Privileged Access Security Web Access (PVWA) or the PrivateArk Client to check and modify the permissions on the safe. You can also use the CyberArk REST API Tester or a tool like Postman to test the REST API call and see the response from the CCP. For more information, refer to the following resources:

• Credential Providers - Centralized Credential Management | CyberArk, Section “Central Credential Provider”
• Credential Provider - CyberArk, Section “Using the Credential Provider”
• How to Build Your Secrets Management REST API’s into Postman, Section “How to Build Your Secrets Management REST API’s into Postman”

Conjur is a secrets management solution that securely stores and manages secrets and credentials used by applications, DevOps tools, and other systems. Conjur can be deployed in different scenarios, depending on the needs and preferences of the organization. One of the possible deployment scenarios is to deploy the Leader cluster outside a Kubernetes environment, and the Followers and Standbys inside or outside the environment.

The Leader cluster is the primary node that handles all write operations and coordinates the replication of data to the Follower and Standby nodes. The Leader cluster consists of one active Leader node and one or more Standby nodes that can be promoted to Leader in case of a failure. The Leader cluster can be deployed outside a Kubernetes environment, such as on a virtual machine or a physical server, using Docker or other installation methods. This can provide more control and flexibility over the configuration and management of the Leader cluster, as well as better performance and security.

The Follower and Standby nodes are read-only replicas of the Leader node that can serve requests from clients and applications that need to retrieve secrets or perform other read-only operations. The Follower and Standby nodes can be deployed inside or outside a Kubernetes environment, depending on the use case and the availability requirements. For example, if the clients and applications are running inside a Kubernetes cluster, it may be convenient and efficient to deploy the Follower and Standby nodes inside the same cluster, using Helm charts or other methods. This can reduce the network latency and complexity, and leverage the Kubernetes features such as service discovery, load balancing, and health checks. Alternatively, if the clients and applications are running outside a Kubernetes cluster, or if there is a need to distribute the Follower and Standby nodes across different regions or availability zones, it may be preferable to deploy the Follower and Standby nodes outside the Kubernetes cluster, using Docker or other methods. This can provide more scalability and resiliency, and avoid the dependency on the Kubernetes cluster.

References = Conjur Deployment Scenarios; Conjur Cluster Installation; Conjur Kubernetes Integration

To upgrade an HA Conjur cluster, you need to follow these steps:

• Stop and rename the Conjur Leader container and then start the new Leader. This step ensures that you have a backup of the old Leader container in case something goes wrong with the upgrade. You also need to specify the hostname and master-altnames parameters when starting the new Leader container to match the load balancer and the cluster nodes.
• Restore the Leader from backup. This step restores the data and configuration from the old Leader to the new Leader. You need to use the evoke restore command with the backup file name and the account name as arguments.
• Redeploy to the Standbys. This step upgrades the Standbys to the same version as the Leader. You need to stop and rename the old Standby containers and then start the new Standby containers with the evoke configure standby command. You also need to specify the hostname of the Leader and the Standby as arguments.
• Enroll the Leader and Standbys into the auto-failover cluster. This step enables the auto-failover feature for the cluster, which allows the Standbys to automatically take over the role of the Leader in case of a failure. You need to use the evoke cluster enroll command on the Leader and the evoke cluster join command on the Standbys. You also need to provide the hostname and password of the Leader as arguments.

References: You can find more information about the upgrade process in the following resources:

• Upgrade Conjur
• Configure the Conjur cluster
• Conjur architecture and deployment reference
• Breathe Easy with a Self-Healing Conjur Cluster

Conjur is a secrets management solution that securely stores and manages secrets and credentials used by applications, DevOps tools, and other systems. Conjur provides a REST API that enables users to perform various operations on Conjur objects, such as secrets, policies, roles, and resources. The API endpoint for each Conjur object is composed of the base URL of the Conjur server, followed by the object type and identifier. For example, the API endpoint for a secret named db-password in the dev/my-app policy is:

https:// /secrets/dev/my-app/db-password

To discover secrets inside of Conjur, the API endpoint that can be used is Resources. Resources are Conjur objects that have permissions and annotations associated with them, such as secrets, hosts, groups, and layers. The Resources API endpoint allows users to list, search, and filter resources based on various criteria, such as kind, owner, policy, and annotation. For example, the following API request will return a list of all secrets owned by the user alice:

https:// /resources?kind=variable&owner=user:alice

The Resources API endpoint can help users to discover secrets inside of Conjur by providing information such as the name, ID, policy, owner, and annotations of each secret. Users can also use the Resources API endpoint to check the permissions and audit records of each secret, and to retrieve the secret value if they have the read permission.

References = Conjur API; Resources API; Secrets API

The most likely cause for this issue is A. malformed Policy file. A 422 Response from Conjur indicates that the request was well-formed but was unable to be followed due to semantic errors. A common semantic error when loading policy is having a malformed Policy file, which means that the Policy file does not follow the correct syntax, structure, or logic of the Conjur Policy language. A malformed Policy file can result from typos, missing or extra characters, incorrect indentation, invalid references, or other mistakes that prevent Conjur from parsing and applying the Policy file. The message that accompanies the 422 Response will usually provide more details about the error and the location of the problem in the Policy file.

To resolve this issue, you should review the Policy file and check for any errors or inconsistencies. You can use a YAML validator or a text editor with syntax highlighting to help you identify and correct any syntax errors. You can also use the Conjur Policy Simulator to test and debug your Policy file before loading it to Conjur. The Conjur Policy Simulator is a web-based tool that allows you to upload your Policy file and see how it will affect the Conjur data model, without actually loading it to Conjur. You can also use the Conjur Policy Simulator to compare different versions of your Policy file and see the changes and conflicts between them. For more information, refer to the following resources:

• Policy - CyberArk, Section “Policy”
• Policy Language - CyberArk, Section “Policy Language”
• Conjur Policy Simulator - CyberArk, Section “Conjur Policy Simulator”

The correct order for prioritization of the findings is as follows:

• A new vulnerability scanner project is nearing completion and is expected to go into production soon. This scanner is owned by the Security Team that owns CyberArk. This finding should be prioritized first because it has the highest urgency, feasibility, and alignment with the Security Team’s goals. The vulnerability scanner is a critical security tool that needs to protect its credentials from unauthorized access. The Security Team can leverage their own expertise and authority to implement the Secrets Manager solution for this project without much delay or dependency.
• A large, high performance application under PCI DSS regulation will require many CPs. This will require a license purchase. The procurement process can take 6-12 months. The development team is eager to work with Security on this project. This finding should be prioritized second because it has a high impact, compliance requirement, and stakeholder support. The application handles sensitive payment card data that needs to be secured by the Secrets Manager solution. The development team is willing to collaborate with the Security Team on this project and can help with the technical aspects of the implementation. However, this finding also has a high cost and a long lead time due to the license purchase and the procurement process.
• A small, internally developed application under HIPPA regulation needs updates to the application code to retrieve secrets from a Secrets Manager solution. The development team stated they cannot accommodate this work before next quarter. This finding should be prioritized third because it has a moderate impact, compliance requirement, and feasibility. The application handles protected health information that needs to be secured by the Secrets Manager solution. The development team is aware of the need to update the application code to integrate with the Secrets Manager solution, but they have other priorities and constraints that prevent them from doing so in the near term.

Here's the reasoning behind this order:

1. New vulnerability scanner project:

This project directly impacts CyberArk's Security Team, making it a high priority due to potential internal security concerns. Additionally, its near-completion state suggests a quicker implementation timeframe.

2. Large application under PCI DSS:

While this application requires significant resources and time investment due to license purchase and development, its high performance and PCI DSS regulation compliance mandate prioritization. Delaying this project could potentially lead to security vulnerabilities and compliance issues.

3. Small application under HIPAA:

Although HIPAA regulation necessitates compliance, the application's size and development team's delay request suggest a lower priority compared to the previous two projects. However, it should still be addressed within the next quarter as mandated by the development team.