GUARD Exam Dumps - CyberArk Guardian Questions and Answers

Recovery Time Objective (RTO) defines the maximum acceptable duration of service interruption following a failure.

For a CyberArk deployment requiring minimal recovery time from individual Vault server failures in both datacenters, high-availability Vault clusters provide an appropriate architecture.

A CyberArk Vault cluster consists of two Vault nodes configured to operate as a single logical Vault service. The Cluster Vault Manager coordinates availability and failover between the active and passive nodes.

If the active node fails, the surviving cluster node can assume operations through the supported failover mechanism, minimizing interruption without requiring a full datacenter disaster recovery procedure.

Deploying a Primary Vault cluster in the primary datacenter and a DR Vault cluster in the secondary datacenter combines local high availability with geographic disaster recovery.

This design protects against individual server failures at either location while retaining a standby recovery environment if the primary datacenter becomes unavailable.

The distinction is important: automatic cluster-node failover does not necessarily mean instantaneous disaster recovery promotion between geographically separated Vault clusters.

Option B directly addresses the customer's requirement for local server-failure resilience at both locations.

See correct matching / sequence below.

Original description / order

Correct match

Application Parameter Advantage

Flexibility for change in the future for fine tuning

Application Parameter Disadvantage

Could be circumvented

Checksum Advantage

Great for custom/inhouse script

Checksum disadvantage

Overhead from long term operational perspective

CyberArk Endpoint Privilege Manager supports granular application-control policies that use different identifying characteristics to determine whether executable content should be allowed, elevated, restricted, or blocked.

Application parameters enable administrators to create flexible policies based on attributes and command-line conditions associated with application execution.

The principal advantage is configurability. Parameters can be adjusted as applications and operational requirements evolve without necessarily rebuilding the entire application policy.

However, insufficiently constrained parameters may create opportunities for bypass. If an attacker can manipulate an accepted parameter or exploit an overly broad matching condition, the application could behave differently from the administrator's intended policy.

Checksums provide a different form of identification. A cryptographic checksum can bind a policy to a specific file version, making it particularly useful for internally developed scripts or tightly controlled executables.

The limitation is maintenance overhead. Modifying the underlying file generally changes its checksum, requiring administrators to update the associated policy.

In environments where scripts change frequently, this can create substantial operational effort.

Neither approach is universally superior. Effective application control depends on identifying the appropriate combination of file attributes, cryptographic hashes, publishers, paths, parameters, and execution context.

The NFNotifyOnPasswordUsed platform parameter controls notifications associated with privileged password usage. It enables administrators to monitor credential-access activity and support security oversight.

When an authorized user copies a password through the Password Vault Web Access (PVWA) interface, the operation constitutes an explicit credential retrieval. Consequently, option A represents a direct password-use event.

The uploaded question's explanation also identifies launching a connection through PVWA as a qualifying event. In the traditional privileged-access workflow, the Connect action initiates access to a managed target using the associated account credentials, potentially without displaying their values to the user.

Account onboarding, described in option B, is an account-management activity rather than password usage. Similarly, a CPM verification operation confirms credential validity and should not automatically be equated with an end-user password retrieval event.

However, PSM for SSH can also use vaulted credentials when establishing managed sessions. Whether such activity triggers this particular notification requires examination of the supported notification event behavior for the deployed product version.

CyberArk Privileged Threat Analytics (PTA) provides security analytics for privileged account activity, identifying suspicious behavior, anomalous access patterns, and potential credential misuse.

In the traditional PTA disaster recovery architecture, the Primary PTA server processes incoming security events and performs the active analytics functions. A Secondary PTA server maintains replicated information and provides a recovery capability if the Primary PTA becomes unavailable.

Promoting the Secondary server requires an administrator-controlled failover procedure. The administrator must confirm the failure, assess replication consistency, activate the secondary environment according to the supported recovery procedure, and ensure that relevant integrations direct their traffic to the newly active server.

PTA Network Sensors collect network authentication information for analytics. They do not independently manage PTA server promotion or provide automatic high-availability orchestration.

Although Linux shell scripts may be involved in PTA disaster recovery configuration and recovery operations, the presence of such scripts does not mean that unattended automatic promotion is supported.

Manual promotion provides operational control over recovery and helps prevent inconsistent analytics environments or an unintended simultaneous-primary condition.

CyberArk Privileged Session Manager supports storing privileged-session recordings on external storage infrastructure instead of retaining every recording directly within the Digital Vault.

This capability is particularly relevant to environments generating substantial recording volumes or requiring dedicated archival storage.

The configuration described in the question requires storage supporting SMB 3.0, an appropriately privileged Windows account for accessing the storage location, and protection against unauthorized modification or deletion of recording files.

SMB provides the network file-sharing mechanism through which the recording infrastructure accesses the designated storage resource.

The Windows account must have the necessary permissions to perform the recording operations. These permissions should be scoped to the required storage functionality rather than granting unrestricted administrative access.

Storage-level tampering protection is essential because privileged-session recordings are security audit evidence. Unauthorized alteration, replacement, or deletion could undermine their integrity and evidentiary value.

A Domain Administrator account is not required merely to access external storage. Granting such excessive privileges would violate least-privilege principles.

Likewise, neither Azure Key Vault nor AWS KMS is an inherent prerequisite for the Windows SMB-based storage arrangement described.

Technical warning / qualification: Option A matches the uploaded Guardian material. The exact SMB and storage-security prerequisites must be validated against the deployed PSM release. External recording storage also requires independent consideration of encryption, backup, and retention controls.

The CyberArk Digital Vault Security Standard establishes strict controls over the operating system and software installed on Vault servers.

The Vault is intended to operate as a dedicated, hardened security appliance with a minimized attack surface.

Installing unnecessary third-party applications introduces additional services, executables, network dependencies, and potential vulnerabilities that can undermine the Vault's security isolation.

However, certain infrastructure integrations require supported device drivers or vendor-specific cryptographic libraries.

Examples include Hardware Security Module drivers, storage-controller drivers, and supported network-interface components required for the Vault to communicate with essential hardware.

Such components may be installed when they are necessary for the supported architecture and comply with CyberArk's installation and security requirements.

The presence of an organizational policy requiring antivirus software does not automatically establish that installing an arbitrary antivirus agent on the Vault is supported.

Likewise, compliance with a general organizational software standard does not override the Vault Security Standard.

Option A is too absolute because some infrastructure integrations require approved third-party components.

Technical warning / qualification: Option B is the intended answer, but it should not be interpreted as unrestricted permission to install any SAN, HSM, or NIC driver. Supported versions and approved installation procedures must be confirmed.

The CyberArk Digital Vault uses cryptographic key material to protect sensitive information stored within its secure repository.

The Master Private Key is a highly sensitive recovery asset associated with emergency access and cryptographic recovery operations.

Because compromise of this key could undermine the security of protected Vault information, its storage requires controls substantially stronger than those applied to ordinary operational files.

The recommended approach is to maintain the Master Private Key offline, protected by strict physical access controls.

A physical safe or equivalent secure custody solution provides protection against remote compromise and reduces the likelihood that an attacker who gains access to an operational system can also obtain the recovery key.

Organizations should establish formal procedures governing key custody, authorized access, recovery operations, and access auditing.

Depending on organizational requirements, additional safeguards may include dual-person authorization, controlled key backups, tamper-evident storage, and geographically separated recovery materials.

A USB drive alone does not provide adequate protection unless incorporated into an appropriately controlled custody process.

Storing the Master Private Key on the Vault server or within the same Vault it protects would introduce unnecessary security dependencies.

The selected storage arrangement must support both strong confidentiality and reliable recovery during a major infrastructure failure.

In standard CyberArk Privilege Cloud deployments, the Connector server (which hosts the CPM and PSM components) is typically joined to the corporate Active Directory domain . This allows the connector to leverage domain Group Policy Objects (GPOs) for server hardening and properly manage Windows domain accounts and target systems. (Note: While an "out-of-domain" deployment option exists for specific isolated environments, domain-joined is the standard requirement tested on the CyberArk Guardian