Test failover cleanup removes temporary resources and records test completion. In this case, a primary region is completely unavailable and controlled shutdown is impossible. “Complete cleanup test failover after validation” would not satisfy that requirement; the supported action is “Unplanned failover using available replicated recovery points”. Unplanned failover applies when the source cannot cooperate with controlled shutdown.

Ending the drill should retire its transient test environment. In this case, a primary region is completely unavailable and controlled shutdown is impossible. “Clean up the test failover in Site Recovery” would not satisfy that requirement; the supported action is “Unplanned failover using available replicated recovery points”. Unplanned failover applies when the source cannot cooperate with controlled shutdown.

Multi-tier workloads may require ordered startup and checks. In this case, a primary region is completely unavailable and controlled shutdown is impossible. “Set application-aware recovery plan order and validation steps” would not satisfy that requirement; the supported action is “Unplanned failover using available replicated recovery points”. Unplanned failover applies when the source cannot cooperate with controlled shutdown.

Planned failover coordinates migration when source systems can be managed before cutover. In this case, a DR team needs to restore app and database tiers in a specific order. “Planned failover with appropriate preconditions” would not satisfy that requirement; the supported action is “An Azure Site Recovery recovery plan with ordered groups and steps”. Recovery plans coordinate sequenced failover for multi-tier services.

Recovery includes keeping services protected after the cutover. In this case, a DR team needs to restore app and database tiers in a specific order. “Post-failover validation, reprotection and failback planning” would not satisfy that requirement; the supported action is “An Azure Site Recovery recovery plan with ordered groups and steps”. Recovery plans coordinate sequenced failover for multi-tier services.

Unplanned failover applies when the source cannot cooperate with controlled shutdown. In this case, a DR team needs to restore app and database tiers in a specific order. “Unplanned failover using available replicated recovery points” would not satisfy that requirement; the supported action is “An Azure Site Recovery recovery plan with ordered groups and steps”. Recovery plans coordinate sequenced failover for multi-tier services.

Unplanned failover applies when the source cannot cooperate with controlled shutdown. In this case, a team launches every replicated VM simultaneously and a database dependency fails. “Unplanned failover using available replicated recovery points” would not satisfy that requirement; the supported action is “Set application-aware recovery plan order and validation steps”. Multi-tier workloads may require ordered startup and checks.

Reprotection restores replication configuration for continued disaster resilience. In this case, a team launches every replicated VM simultaneously and a database dependency fails. “Reprotect the workloads after failover as supported” would not satisfy that requirement; the supported action is “Set application-aware recovery plan order and validation steps”. Multi-tier workloads may require ordered startup and checks.

Recovery includes keeping services protected after the cutover. In this case, a team launches every replicated VM simultaneously and a database dependency fails. “Post-failover validation, reprotection and failback planning” would not satisfy that requirement; the supported action is “Set application-aware recovery plan order and validation steps”. Multi-tier workloads may require ordered startup and checks.

Multi-tier workloads may require ordered startup and checks. In this case, a production failover succeeds but workloads are not being replicated from the new region. “Set application-aware recovery plan order and validation steps” would not satisfy that requirement; the supported action is “Reprotect the workloads after failover as supported”. Reprotection restores replication configuration for continued disaster resilience.

Planned failover coordinates migration when source systems can be managed before cutover. In this case, a production failover succeeds but workloads are not being replicated from the new region. “Planned failover with appropriate preconditions” would not satisfy that requirement; the supported action is “Reprotect the workloads after failover as supported”. Reprotection restores replication configuration for continued disaster resilience.

Different recovery objectives govern point-in-time loss and service availability. In this case, a production failover succeeds but workloads are not being replicated from the new region. “RPO is data-loss tolerance; RTO is restoration time” would not satisfy that requirement; the supported action is “Reprotect the workloads after failover as supported”. Reprotection restores replication configuration for continued disaster resilience.

Recovery plans coordinate sequenced failover for multi-tier services. In this case, an operator assumes a successful failover completes the entire DR lifecycle. “An Azure Site Recovery recovery plan with ordered groups and steps” would not satisfy that requirement; the supported action is “Post-failover validation, reprotection and failback planning”. Recovery includes keeping services protected after the cutover.

Multi-tier workloads may require ordered startup and checks. In this case, an operator assumes a successful failover completes the entire DR lifecycle. “Set application-aware recovery plan order and validation steps” would not satisfy that requirement; the supported action is “Post-failover validation, reprotection and failback planning”. Recovery includes keeping services protected after the cutover.

Different recovery objectives govern point-in-time loss and service availability. In this case, an operator assumes a successful failover completes the entire DR lifecycle. “RPO is data-loss tolerance; RTO is restoration time” would not satisfy that requirement; the supported action is “Post-failover validation, reprotection and failback planning”. Recovery includes keeping services protected after the cutover.

Guest boot success does not necessarily mean business service restoration. In this case, a disaster recovery policy demands an RPO under 15 minutes. “Include dependent application validation in the measured end-to-end RTO” would not satisfy that requirement; the supported action is “Actual replication recovery points and measured RPO for the workload”. RPO expresses tolerated data loss and depends on achievable replication points.

Recovery time objective expresses tolerated outage duration. In this case, a disaster recovery policy demands an RPO under 15 minutes. “RTO from failure declaration to service restoration” would not satisfy that requirement; the supported action is “Actual replication recovery points and measured RPO for the workload”. RPO expresses tolerated data loss and depends on achievable replication points.

Recovery includes keeping services protected after the cutover. In this case, a disaster recovery policy demands an RPO under 15 minutes. “Post-failover validation, reprotection and failback planning” would not satisfy that requirement; the supported action is “Actual replication recovery points and measured RPO for the workload”. RPO expresses tolerated data loss and depends on achievable replication points.

Recovery time objective expresses tolerated outage duration. In this case, an engineer treats RPO as the maximum time required to start services after a failure. “RTO from failure declaration to service restoration” would not satisfy that requirement; the supported action is “RPO is data-loss tolerance; RTO is restoration time”. Different recovery objectives govern point-in-time loss and service availability.

Guest boot success does not necessarily mean business service restoration. In this case, an engineer treats RPO as the maximum time required to start services after a failure. “Include dependent application validation in the measured end-to-end RTO” would not satisfy that requirement; the supported action is “RPO is data-loss tolerance; RTO is restoration time”. Different recovery objectives govern point-in-time loss and service availability.

Recovery includes keeping services protected after the cutover. In this case, an engineer treats RPO as the maximum time required to start services after a failure. “Post-failover validation, reprotection and failback planning” would not satisfy that requirement; the supported action is “RPO is data-loss tolerance; RTO is restoration time”. Different recovery objectives govern point-in-time loss and service availability.

Different recovery objectives govern point-in-time loss and service availability. In this case, an application needs a recovery time under one hour. “RPO is data-loss tolerance; RTO is restoration time” would not satisfy that requirement; the supported action is “RTO from failure declaration to service restoration”. Recovery time objective expresses tolerated outage duration.

RPO expresses tolerated data loss and depends on achievable replication points. In this case, an application needs a recovery time under one hour. “Actual replication recovery points and measured RPO for the workload” would not satisfy that requirement; the supported action is “RTO from failure declaration to service restoration”. Recovery time objective expresses tolerated outage duration.

Failures need notification and investigation rather than passive history. In this case, an application needs a recovery time under one hour. “Configure backup job alerting and operational reporting” would not satisfy that requirement; the supported action is “RTO from failure declaration to service restoration”. Recovery time objective expresses tolerated outage duration.

RPO expresses tolerated data loss and depends on achievable replication points. In this case, a VM recovers in ten minutes but its database takes two hours to validate. “Actual replication recovery points and measured RPO for the workload” would not satisfy that requirement; the supported action is “Include dependent application validation in the measured end-to-end RTO”. Guest boot success does not necessarily mean business service restoration.

Different recovery objectives govern point-in-time loss and service availability. In this case, a VM recovers in ten minutes but its database takes two hours to validate. “RPO is data-loss tolerance; RTO is restoration time” would not satisfy that requirement; the supported action is “Include dependent application validation in the measured end-to-end RTO”. Guest boot success does not necessarily mean business service restoration.

Backup health depends on scheduled job results, not only enabled policy state. In this case, a VM recovers in ten minutes but its database takes two hours to validate. “Backup job errors, policy configuration and vault diagnostics” would not satisfy that requirement; the supported action is “Include dependent application validation in the measured end-to-end RTO”. Guest boot success does not necessarily mean business service restoration.

Backup redundancy affects recovery architecture and regional resilience. In this case, a backup report shows repeated failures for one protected VM. “Select a supported geo-redundancy strategy for the vault's backup storage” would not satisfy that requirement; the supported action is “Backup job errors, policy configuration and vault diagnostics”. Backup health depends on scheduled job results, not only enabled policy state.

Regional disaster requirements need a suitably supported recovery architecture. In this case, a backup report shows repeated failures for one protected VM. “LRS protects local hardware failure, not complete regional loss” would not satisfy that requirement; the supported action is “Backup job errors, policy configuration and vault diagnostics”. Backup health depends on scheduled job results, not only enabled policy state.

Guest boot success does not necessarily mean business service restoration. In this case, a backup report shows repeated failures for one protected VM. “Include dependent application validation in the measured end-to-end RTO” would not satisfy that requirement; the supported action is “Backup job errors, policy configuration and vault diagnostics”. Backup health depends on scheduled job results, not only enabled policy state.

Backup redundancy affects recovery architecture and regional resilience. In this case, an auditor sees no alerts even though nightly backup jobs fail. “Select a supported geo-redundancy strategy for the vault's backup storage” would not satisfy that requirement; the supported action is “Configure backup job alerting and operational reporting”. Failures need notification and investigation rather than passive history.

Regional disaster requirements need a suitably supported recovery architecture. In this case, an auditor sees no alerts even though nightly backup jobs fail. “LRS protects local hardware failure, not complete regional loss” would not satisfy that requirement; the supported action is “Configure backup job alerting and operational reporting”. Failures need notification and investigation rather than passive history.

Guest boot success does not necessarily mean business service restoration. In this case, an auditor sees no alerts even though nightly backup jobs fail. “Include dependent application validation in the measured end-to-end RTO” would not satisfy that requirement; the supported action is “Configure backup job alerting and operational reporting”. Failures need notification and investigation rather than passive history.