Question 250A ransomware response deletes recently taken backups from an Azure Recovery Services vault because administrators did not apply supported deletion safeguards. Why does the proposed solution address the underlying problem? Backup data bits alone may not make an encrypted VM bootable without the required external key or secret access. File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. Backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. Deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. ExplanationCorrect Answer D:Deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. The mechanism explains the corrective action: Enable available vault backup-protection controls such as soft delete and supported immutability settings under a documented policy. The associated validation is: Test a controlled backup-item delete and verify the intended retention and restoration protections activate. Other Answers A:Backup data bits alone may not make an encrypted VM bootable without the required external key or secret access. By contrast, deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. B:File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. In the stated system, deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. C:Backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. By contrast, deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident.
Question 251A ransomware response deletes recently taken backups from an Azure Recovery Services vault because administrators did not apply supported deletion safeguards. Which validation result directly demonstrates recovery? Inspect the policy's daily, weekly, monthly and yearly retention selections and verify resulting recovery-point expectations. Restore the encrypted test VM into an isolated resource group and verify key access, successful boot and data readability. Delete a controlled test file and restore it to an alternate location while validating the file's ACLs and contents. Test a controlled backup-item delete and verify the intended retention and restoration protections activate. ExplanationCorrect Answer D:Test a controlled backup-item delete and verify the intended retention and restoration protections activate. This evidence tests whether the team actually completed: Enable available vault backup-protection controls such as soft delete and supported immutability settings under a documented policy. It addresses the risk because deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. Other Answers A:Backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. The failure is checked more directly by a test to test a controlled backup-item delete and verify the intended retention and restoration protections activate. B:Backup data bits alone may not make an encrypted VM bootable without the required external key or secret access. Proving this correction calls for a check to test a controlled backup-item delete and verify the intended retention and restoration protections activate. C:File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. A more meaningful verification is to test a controlled backup-item delete and verify the intended retention and restoration protections activate.
Question 252A ransomware response deletes recently taken backups from an Azure Recovery Services vault because administrators did not apply supported deletion safeguards. Which operational practice most directly limits recurrence? Restrict backup administration roles and audit vault protection changes, retention reductions and delete requests. Include key escrow and key-permission recovery in backup runbooks and protect keys independently from the VM. Review backup retention against recordkeeping obligations whenever business or regulatory requirements change. Regularly test file-level restores and verify schedule and retention coverage against business recovery objectives. ExplanationCorrect Answer A:Restrict backup administration roles and audit vault protection changes, retention reductions and delete requests. This preventive control maintains the intended protection because deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. The initial action remains: Enable available vault backup-protection controls such as soft delete and supported immutability settings under a documented policy. Other Answers B:Backup data bits alone may not make an encrypted VM bootable without the required external key or secret access. The lasting safeguard is to restrict backup administration roles and audit vault protection changes, retention reductions and delete requests. C:Backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. A more direct preventive measure is to restrict backup administration roles and audit vault protection changes, retention reductions and delete requests. D:File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. The stronger recurring control is to restrict backup administration roles and audit vault protection changes, retention reductions and delete requests.
Question 253A compliance application requires seven years of backups, but its vault policy retains daily restore points for only thirty days. Which change meets the stated Windows Server requirement? Configure the supported Azure Backup file-and-folder protection agent and select the required folders and retention policy. Enable available vault backup-protection controls such as soft delete and supported immutability settings under a documented policy. Create a supported retention policy with the required long-term recovery points and apply it to the correct protected workload. Use supported Azure VM instant restore or file recovery from an appropriate recovery-point snapshot to retrieve the needed files. ExplanationCorrect Answer C:Create a supported retention policy with the required long-term recovery points and apply it to the correct protected workload. This resolves the observed failure because backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. A suitable acceptance check is: Inspect the policy's daily, weekly, monthly and yearly retention selections and verify resulting recovery-point expectations. Other Answers A:File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. The required change instead is to create a supported retention policy with the required long-term recovery points and apply it to the correct protected workload. B:Deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. The required change instead is to create a supported retention policy with the required long-term recovery points and apply it to the correct protected workload. D:Snapshot-backed recovery can offer faster point-in-time file inspection than a full VM rebuild, within the chosen retention and recovery-point limits. A more relevant action is to create a supported retention policy with the required long-term recovery points and apply it to the correct protected workload.
Question 254A compliance application requires seven years of backups, but its vault policy retains daily restore points for only thirty days. Which Windows Server behavior explains the situation? Backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. Deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. Snapshot-backed recovery can offer faster point-in-time file inspection than a full VM rebuild, within the chosen retention and recovery-point limits. ExplanationCorrect Answer A:Backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. The mechanism explains the corrective action: Create a supported retention policy with the required long-term recovery points and apply it to the correct protected workload. The associated validation is: Inspect the policy's daily, weekly, monthly and yearly retention selections and verify resulting recovery-point expectations. Other Answers B:File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. In the stated system, backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. C:Deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. In the stated system, backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. D:Snapshot-backed recovery can offer faster point-in-time file inspection than a full VM rebuild, within the chosen retention and recovery-point limits. By contrast, backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention.
Question 255A compliance application requires seven years of backups, but its vault policy retains daily restore points for only thirty days. Which observation proves the stated requirement is satisfied? Test a controlled backup-item delete and verify the intended retention and restoration protections activate. Inspect the policy's daily, weekly, monthly and yearly retention selections and verify resulting recovery-point expectations. Delete a controlled test file and restore it to an alternate location while validating the file's ACLs and contents. Mount or browse the selected recovery point and compare restored file versions and checksums against a known expected state. ExplanationCorrect Answer B:Inspect the policy's daily, weekly, monthly and yearly retention selections and verify resulting recovery-point expectations. This evidence tests whether the team actually completed: Create a supported retention policy with the required long-term recovery points and apply it to the correct protected workload. It addresses the risk because backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. Other Answers A:Deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. The failure is checked more directly by a test to inspect the policy's daily, weekly, monthly and yearly retention selections and verify resulting recovery-point expectations. C:File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. The failure is checked more directly by a test to inspect the policy's daily, weekly, monthly and yearly retention selections and verify resulting recovery-point expectations. D:Snapshot-backed recovery can offer faster point-in-time file inspection than a full VM rebuild, within the chosen retention and recovery-point limits. Proving this correction calls for a check to inspect the policy's daily, weekly, monthly and yearly retention selections and verify resulting recovery-point expectations.
Question 256A compliance application requires seven years of backups, but its vault policy retains daily restore points for only thirty days. Which ongoing safeguard would best prevent this failure recurring? Regularly test file-level restores and verify schedule and retention coverage against business recovery objectives. Review backup retention against recordkeeping obligations whenever business or regulatory requirements change. Practice non-disruptive file recovery and monitor snapshot retention to ensure required recovery points remain accessible. Restrict backup administration roles and audit vault protection changes, retention reductions and delete requests. ExplanationCorrect Answer B:Review backup retention against recordkeeping obligations whenever business or regulatory requirements change. This preventive control maintains the intended protection because backup retention settings determine available recovery history; a successful daily backup does not guarantee multi-year retention. The initial action remains: Create a supported retention policy with the required long-term recovery points and apply it to the correct protected workload. Other Answers A:File-level Azure Backup protection requires the relevant workload to be registered and scheduled; VM image protection alone may not cover the stated server. Reducing this risk requires a practice to review backup retention against recordkeeping obligations whenever business or regulatory requirements change. C:Snapshot-backed recovery can offer faster point-in-time file inspection than a full VM rebuild, within the chosen retention and recovery-point limits. A more direct preventive measure is to review backup retention against recordkeeping obligations whenever business or regulatory requirements change. D:Deletion safeguards increase recovery options after mistaken or malicious backup deletion, but only when configured before the incident. Reducing this risk requires a practice to review backup retention against recordkeeping obligations whenever business or regulatory requirements change.
Question 257An on-premises VM replicates to Azure Site Recovery, but its designated recovery subnet has no mapping from the production source network. Which remediation specifically resolves the problem rather than a related symptom? Configure the correct source-to-target ASR network mapping and test that the recovered VM lands on an isolated appropriate subnet. Select supported recovery-point and application-consistency policy settings and measure achieved recovery points against the business RPO. Assess target region quotas, target resources and supported replication policies before initiating planned production protection. Use an isolated ASR test failover network and designated recovery points instead of initiating an unplanned production failover. ExplanationCorrect Answer A:Configure the correct source-to-target ASR network mapping and test that the recovered VM lands on an isolated appropriate subnet. This resolves the observed failure because site Recovery replication preserves workload state while network mapping defines how recovered VM interfaces attach at failover. A suitable acceptance check is: Run an isolated test failover and inspect recovered VM subnet placement, name resolution and approved connectivity. Other Answers B:Crash-consistent replication and application-consistent snapshots have different restoration properties and cadences. The corrective action for this requirement is to configure the correct source-to-target ASR network mapping and test that the recovered VM lands on an isolated appropriate subnet. C:Replicated disk data is not sufficient for failover if target-region compute, identity or resource configuration cannot host the workload. A more relevant action is to configure the correct source-to-target ASR network mapping and test that the recovered VM lands on an isolated appropriate subnet. D:ASR test failover validates recovery arrangements without needing to commit the protected production workload to the secondary site. This failure calls for a decision to configure the correct source-to-target ASR network mapping and test that the recovered VM lands on an isolated appropriate subnet.
Question 258An on-premises VM replicates to Azure Site Recovery, but its designated recovery subnet has no mapping from the production source network. Which technical explanation makes the recommended approach appropriate? Site Recovery replication preserves workload state while network mapping defines how recovered VM interfaces attach at failover. Crash-consistent replication and application-consistent snapshots have different restoration properties and cadences. ASR test failover validates recovery arrangements without needing to commit the protected production workload to the secondary site. Replicated disk data is not sufficient for failover if target-region compute, identity or resource configuration cannot host the workload. ExplanationCorrect Answer A:Site Recovery replication preserves workload state while network mapping defines how recovered VM interfaces attach at failover. The mechanism explains the corrective action: Configure the correct source-to-target ASR network mapping and test that the recovered VM lands on an isolated appropriate subnet. The associated validation is: Run an isolated test failover and inspect recovered VM subnet placement, name resolution and approved connectivity. Other Answers B:Crash-consistent replication and application-consistent snapshots have different restoration properties and cadences. In the stated system, site Recovery replication preserves workload state while network mapping defines how recovered VM interfaces attach at failover. C:ASR test failover validates recovery arrangements without needing to commit the protected production workload to the secondary site. By contrast, site Recovery replication preserves workload state while network mapping defines how recovered VM interfaces attach at failover. D:Replicated disk data is not sufficient for failover if target-region compute, identity or resource configuration cannot host the workload. In the stated system, site Recovery replication preserves workload state while network mapping defines how recovered VM interfaces attach at failover.
Question 259An on-premises VM replicates to Azure Site Recovery, but its designated recovery subnet has no mapping from the production source network. Which test should pass before accepting this change? Run a test failover in the target region and measure provisioning, boot and network availability within recovery objectives. Run an isolated test failover and inspect recovered VM subnet placement, name resolution and approved connectivity. Launch a test failover, verify the isolated VM and application, then clean up test resources without impacting production service. Inspect generated recovery points and perform a database consistency check after selecting an app-consistent test restore. ExplanationCorrect Answer B:Run an isolated test failover and inspect recovered VM subnet placement, name resolution and approved connectivity. This evidence tests whether the team actually completed: Configure the correct source-to-target ASR network mapping and test that the recovered VM lands on an isolated appropriate subnet. It addresses the risk because site Recovery replication preserves workload state while network mapping defines how recovered VM interfaces attach at failover. Other Answers A:Replicated disk data is not sufficient for failover if target-region compute, identity or resource configuration cannot host the workload. The relevant acceptance check is to run an isolated test failover and inspect recovered VM subnet placement, name resolution and approved connectivity. C:ASR test failover validates recovery arrangements without needing to commit the protected production workload to the secondary site. Proving this correction calls for a check to run an isolated test failover and inspect recovered VM subnet placement, name resolution and approved connectivity. D:Crash-consistent replication and application-consistent snapshots have different restoration properties and cadences. The failure is checked more directly by a test to run an isolated test failover and inspect recovered VM subnet placement, name resolution and approved connectivity.
Question 260An on-premises VM replicates to Azure Site Recovery, but its designated recovery subnet has no mapping from the production source network. How can administrators make this correction durable through future changes? Include capacity and permission checks and periodic target-region exercises in the disaster recovery plan. Review ASR recovery-point policies whenever transaction volume or application consistency requirements change. Require documented sandbox isolation and success criteria for scheduled disaster recovery exercises. Maintain ASR recovery network maps whenever production VNets, subnets or IP assignments change. ExplanationCorrect Answer D:Maintain ASR recovery network maps whenever production VNets, subnets or IP assignments change. This preventive control maintains the intended protection because site Recovery replication preserves workload state while network mapping defines how recovered VM interfaces attach at failover. The initial action remains: Configure the correct source-to-target ASR network mapping and test that the recovered VM lands on an isolated appropriate subnet. Other Answers A:Replicated disk data is not sufficient for failover if target-region compute, identity or resource configuration cannot host the workload. A more direct preventive measure is to maintain ASR recovery network maps whenever production VNets, subnets or IP assignments change. B:Crash-consistent replication and application-consistent snapshots have different restoration properties and cadences. The lasting safeguard is to maintain ASR recovery network maps whenever production VNets, subnets or IP assignments change. C:ASR test failover validates recovery arrangements without needing to commit the protected production workload to the secondary site. The stronger recurring control is to maintain ASR recovery network maps whenever production VNets, subnets or IP assignments change.
