SECRET-SEN Exam Dumps : CyberArk Sentry Secrets Manager

This is the correct answer because a minimal Conjur deployment that integrates with an existing CyberArk PAM Vault environment, supports high availability, and is redundant across two geographically disparate regions requires the following servers:

• 2 Linux servers for the Conjur master cluster, one in each region. The master cluster consists of a leader and a standby node that can automatically failover in case of a leader failure. The leader node performs read/write operations on the Conjur database and policy engine, while the standby node replicates the leader data and can be promoted to leader if needed. The master cluster also hosts the Conjur UI and API endpoints.
• 4 Linux servers for the Conjur follower clusters, two in each region. The follower clusters consist of one or more follower nodes that perform read-only operations on the Conjur database and policy engine, such as authentication, authorization, and secret retrieval. The follower clusters are horizontally scalable and can be configured behind a load balancer to handle high volumes of requests from applications and clients. The follower clusters also host the Conjur Synchronizer service, which synchronizes secrets from the CyberArk PAM Vault to the Conjur database.
• 2 Linux servers for the Conjur seed fetcher service, one in each region. The seed fetcher service is a utility that runs on a separate server and periodically fetches the Conjur seed files from the master cluster and distributes them to the follower clusters. The seed files contain the configuration and encryption keys that are required to join a follower node to the Conjur cluster. The seed fetcher service ensures that the follower clusters are always updated with the latest seed files and can join the Conjur cluster without manual intervention.
• 2 Windows servers for the CyberArk Central Credential Provider (CCP), one in each region. The CCP is a component that provides secure and centralized credential management for applications and clients that need to access secrets from the CyberArk PAM Vault. The CCP exposes a web service interface that allows applications and clients to request credentials based on their identity and permissions. The CCP integrates with the Conjur Synchronizer service to retrieve the secrets from the Conjur database and cache them locally for faster access.

Therefore, the total number of servers required for this deployment is 9 Linux servers and 2 Windows servers. This deployment architecture is based on the Conjur documentation1 and the Conjur training course2.

The cause of the issue is that the host does not have access to the credential. This can happen if the host does not have the correct permissions or if the credential is not properly configured in the Vault Conjur Synchronizer.

The Vault Conjur Synchronizer is a tool that enables the integration between CyberArk Vault and Conjur Secrets Manager Enterprise. The Synchronizer synchronizes secrets that are stored and managed in the CyberArk Vault with Conjur Enterprise, and allows them to be used via Conjur clients, APIs, and SDKs. The Synchronizer creates and updates Conjur policies and variables based on the Vault accounts and safes, and assigns permissions to Conjur hosts based on the Vault allowed machines.

To fix this issue, the host needs to have the permission to access the credential in Conjur. This can be done by adding the host to the allowed machines list of the Vault account that corresponds to the credential, and synchronizing the changes with Conjur. Alternatively, the host can be granted the permission to access the credential in Conjur by modifying the Conjur policy that corresponds to the Vault safe that contains the credential, and loading the policy to Conjur. However, this may cause conflicts or inconsistencies with the Synchronizer, and is not recommended.

For more information, see the CyberArk Vault Synchronizer docs1 and the Synchronizer Troubleshooting guide2.

According to the CyberArk Sentry Secrets Manager documentation, auto-failover is a feature that enables the automatic promotion of a standby node to a leader node in case of a leader failure. Auto-failover requires a quorum, which is a majority of nodes in the cluster that are available and synchronized. A quorum ensures that only one node can be promoted to a leader at a time and prevents split-brain scenarios. In the exhibit, each option shows a network diagram of a load balancer and four nodes, one of which is crossed out with a red X, indicating a leader failure. The text below each diagram indicates whether there is a quorum or not. Option C is the only example where auto-failover will occur, because there is a quorum of three out of four nodes, and one of the standby nodes can be promoted to a leader. Option A will not have auto-failover, because there is no quorum, as only two out of four nodes are available. Option B will not have auto-failover, because there is no quorum, as only one out of four nodes is available. Option D will not have auto-failover, because there is no quorum, as none of the nodes are available. References: 1: Auto-failover 2: Configure auto-failover