NCP-MCI-7.5 Exam Dumps - Nutanix Certified Professional - Multicloud Infrastructure (NCP-MCI) 7.5

This workload stores MP4 video files, which are typically large, sequential, and already compressed. For data with those characteristics, additional compression work often provides little benefit and can create unnecessary processing overhead. The best optimization is to disable compression for that workload through a storage policy so cluster resources are not wasted trying to compress data that is unlikely to shrink meaningfully. ( Nutanix Portal )

The other choices are weaker for this scenario. Capacity deduplication is generally most beneficial for repeated blocks or common-image patterns, not unique media streams. Erasure Coding is a capacity-efficiency feature, but on a small 3-node cluster and for a write-heavy recording pattern, it is not the primary performance optimization answer. Moving the data to Files changes the access method, but it does not address the specific inefficiency already identified in the storage settings. Nutanix exams often test whether the administrator can match the data service to the workload profile. Since MP4 content is already compressed, removing unnecessary compression overhead is the most targeted and sensible answer, making D correct. ( Nutanix Portal )

The requirement is straightforward: there is one source site (Site A) and the workload must be replicated to two destination clusters, each with potentially different RPO settings. In Nutanix DR design terminology, that is a one-to-many replication pattern. Nutanix documentation for multisite disaster recovery explains that a single protection policy can include replication schedules to multiple recovery clusters, which is how a source can protect workloads to more than one target with different schedule definitions. That makes D the correct answer.

The other choices describe different topologies. Many-to-One means multiple sources targeting one destination. Many-to-Many is broader bidirectional or multiple-source/multiple-target logic than the question requires. Two-Way-Mirroring is not the correct pattern for one source sending copies outward to two other sites. Nutanix’s protection-policy model is specifically flexible enough to define different replication schedules toward separate destinations, which is why this exact scenario is best labeled One-to-Many. So for an exam-aligned and documentation-consistent answer, D is the right choice.

Nutanix Self-Service and NCM documentation explains that approval policies are built around defined conditions and approvers, and those policies are part of the broader Policy Engine capability. Nutanix further documents that the Policy Engine is included in NCM and provides the governance framework for conditions-based approvals before deployment actions proceed. Since the question asks specifically about defining conditions and approvers that must be satisfied before deployment, the correct enabling component is Policy Engine.

Marketplace can host deployable items, but it does not by itself provide the approval-governance mechanism being asked about. Nutanix Central and Power Monitor are unrelated to approval workflows. The wording in the question almost mirrors Nutanix’s own approval-policy description, which is why the intended answer is clear. To enforce conditional approvals before provisioning or deployment actions, administrators use Policy Engine. Therefore A is the authentic answer.

Nutanix documentation for Erasure Coding is explicit: a cluster must have a minimum of four nodes to enable erasure coding, and for RF2 the minimum remains four nodes. Nutanix further explains that RF3 with erasure coding requires six nodes, which helps distinguish the two thresholds clearly for exam purposes. Since the question asks specifically about Replication Factor 2 and Erasure Coding, the minimum supported node count is 4. ( Nutanix )

This question is testing one of the most common node-count rules in Nutanix storage efficiency. A three-node cluster can provide RF2 storage, but that does not automatically mean erasure coding is available there. Erasure coding introduces its own resiliency and stripe-width requirements, and Nutanix sets the minimum at four nodes for RF2. The values 5 and 6 are distractors meant to confuse RF2 and RF3 rules. Because the official requirement is four nodes for RF2 EC, the correct answer is B. ( Nutanix )

The question is asking for the best balance of capacity efficiency, fault tolerance, and cost control. Nutanix documentation explains that erasure coding is the storage-efficiency mechanism that increases usable capacity by using parity instead of full-copy replication overhead, making it a strong fit when data is relatively cold or infrequently modified. Nutanix also documents that erasure coding requires a minimum of six nodes when using replication factor 3, which corresponds to Fault Tolerance 2 designs. That makes Erasure Coding with six nodes the correct answer.

Deduplication is valuable for certain duplicate-heavy data sets such as VDI or repeated blocks, but the question emphasizes business-critical cold data and a tight budget. In that context, erasure coding provides the more directly documented capacity-efficiency benefit. The five-node options are eliminated by Nutanix’s minimum-node requirement for RF3 erasure coding. Since FT2 implies the higher fault-tolerance design and Nutanix requires six nodes for EC with RF3, A is the correct answer.

Nutanix documentation for Prism Central point-in-time backup states that the system supports one point-in-time backup target at a time. Nutanix further documents that Prism Central can be backed up to registered clusters, Nutanix Objects, AWS S3, or generic S3-compliant storage, but the platform still supports only one active point-in-time backup target concurrently. Therefore the correct answer is A. 1.

This question is easy to overthink because the product supports multiple target types, but that is different from supporting multiple simultaneous configured S3 targets for one Prism Central instance. Nutanix’s wording is explicit and leaves little ambiguity: one backup target at a time. That means answers B, C, and D are not consistent with the documented PC backup design. So for a study guide grounded in current official Nutanix documentation, the authentic answer is A.

Nutanix Move is primarily a migration platform for virtual machines, but Nutanix also documents adjacent migration capabilities around file shares to Nutanix Files and migration of NSX local-manager constructs to Flow Network Security (FNS) in supported scenarios. Among the listed answers, only A aligns with the documented Nutanix migration direction set and product intent. Option A stays within the realistic Nutanix ecosystem patterns rather than inventing broad cloud-to-cloud and hypervisor-to-hypervisor combinations that Nutanix Move is not presented as supporting.

The other options are not credible when compared with Nutanix Move’s official scope. AHV-to-Azure or AHV-to-ESXi is not how Nutanix Move is typically documented, and some of the listed items mix unrelated technologies in unsupported ways. This question is testing whether the candidate can distinguish Nutanix’s actual migration tooling scope from made-up combinations. Since Nutanix Move is centered on migrating VMs into Nutanix environments and related supported migration paths such as file shares to Files and NSX local manager to FNS, the correct answer is A.

Nutanix security documentation is clear that vTPM data includes crucial encryption keys and that those keys must be protected through the Nutanix-supported mechanisms. Nutanix also states that encryption keys must be backed up, and third-party-style backup approaches do not protect vTPM device data correctly. If the required key backup material is missing during recovery, the restored environment cannot reconstruct the vTPM-backed trust context for those VMs. In practical terms, that means the VMs cannot be started successfully in the expected protected state because the vTPM keys cannot be recovered without the backup file. That makes D the best answer. ( Nutanix Portal )

This is why Nutanix treats vTPM-enabled workloads as a special class in protection and recovery planning. The issue is not that a new blank vTPM can simply be attached during restore, and it is not that the external KMS alone automatically recreates the VM’s vTPM identity. The trust chain depends on the protected key material. Without that backup information, Windows BitLocker and other vTPM-dependent security features cannot be restored to their original usable state. So even though the environment uses an external KMS for software encryption, the Nutanix-documented principle still applies: without the necessary key backup, the vTPM-enabled VMs cannot be recovered successfully, which is exactly what option D states. ( Nutanix Portal )