Practice Free HPE7-V01 Advanced HPE Edge-to-Cloud Solutions Exam Questions Answers With Explanation

The correct answer is A. The switch output clearly identifies the VTEP origin as “static,” and the VNI is mapped to VLAN 150 with routing disabled. In ArubaOS-CX static VXLAN, the administrator manually configures the VXLAN interface, source IP address, VNI, and peer VTEP. Aruba documentation for static VXLAN states that the peer VTEP IP address is explicitly defined with the vtep-peer command. Option B describes EVPN-VXLAN behavior, where BGP EVPN is used as the control plane to advertise MAC/IP and VTEP reachability dynamically. That is not what the output shows; the displayed origin is static. Option C is unsupported by the exhibit because no license state or scale limit is shown. Option D is incorrect because VXLAN interoperability depends on protocol support, configuration, MTU, underlay reachability, and feature compatibility, not on both sites using the exact same CX switch model. Reference/topics: ArubaOS-CX VXLAN, static VTEP configuration, VNI-to-VLAN mapping, underlay/overlay validation.

The correct answer is D because HPE OneView for VMware vCenter is an integration that allows VMware administrators to manage supported HPE infrastructure directly from the VMware vCenter environment when the infrastructure is already managed by HPE OneView. It is used to simplify lifecycle operations, hardware visibility, firmware management, and ESXi deployment workflows for HPE ProLiant and HPE Synergy systems. HPE documentation states that HPE OneView for VMware vCenter integrates HPE server, storage, and networking management into the VMware console and supports bare-metal ESXi deployment for HPE ProLiant and Synergy platforms. Option A is incorrect because the VMware integration itself is not treated as a separate per-host commercial product in the way the option implies; the underlying HPE OneView licensing and supported hardware management are the key prerequisites. Option B incorrectly introduces capacity-based licensing for each storage component. Option C is too restrictive and incorrectly ties the integration’s use to a specific vSphere edition statement. This question maps to the course objective of selecting appropriate HPE tools and information resources for VMware-integrated infrastructure management.

The correct answer is B because HPE Alletra Storage MP B10000 supports VMware-oriented high-availability designs using Peer Persistence / Active Peer Persistence patterns. HPE documentation provides VMware ESXi host connectivity guidance for Alletra Storage MP B10000 and also describes VMware Metro Storage Cluster configurations with Active Peer Persistence. That is the correct platform positioning for protecting VMware workloads that require storage-level availability across sites. Option A is incorrect because Alletra 6000 Peer Persistence is based on NimbleOS synchronous replication behavior and is not positioned as an “Active Peer Persistence wizard with one-to-many topology.” Option C is also incorrect because Active Peer Persistence is a high-availability replication design, not a one-to-many replication topology. One-to-many replication is a different replication pattern and should not be conflated with Peer Persistence. Option D is incorrect because “Active Peer Persistence” is associated with Alletra Storage MP B10000 / Primera / Alletra 9000-class architecture rather than Alletra 6000’s classic Peer Persistence model. Reference/topics: HPE Alletra Storage MP B10000, VMware ESXi integration, Active Peer Persistence, storage HA design.

The correct answer is A. Existing HPE SimpliVity environments can be brought into the HPE GreenLake / Private Cloud Business Edition management experience by deploying the Data Services Connector virtual machine and importing the system into Data Services Cloud Console. HPE documentation states that Data Services Connectors are VMs that enable management of Private Cloud Business Edition with HPE Alletra Storage MP B10000 and HPE SimpliVity, and HPE guidance for existing SimpliVity customers describes downloading the connector VM, registering it, and importing SimpliVity systems. Option B is too vague and does not identify the required technical onboarding component. Option C confuses compute fleet lifecycle onboarding with PCBE/SimpliVity service integration; iLO activation through Compute Ops Management does not import a SimpliVity cluster into DSCC as a PCBE resource. Option D is legacy/analytics-oriented and does not provide the PCBE feature integration requested. Reference/topics: HPE GreenLake, DSCC, Data Services Connector, HPE SimpliVity onboarding, Private Cloud Business Edition integration.

The correct answer is B. In HPE Synergy, network connectivity for compute modules is defined through HPE OneView server profiles. When RoCE is required, the server profile must explicitly include RoCE connections mapped to the appropriate RoCE network. HPE OneView guidance for adding a RoCE network states that server profiles should be created or edited with at least two RoCE connections mapped to the network. That directly supports the customer’s requirement for resilient, lossless RDMA connectivity between Synergy frames and the Aruba data-center fabric. Option A is incorrect because RoCEv1 is Layer 2 only and is not appropriate for a design traversing multiple switches and VLAN/routed boundaries. Option C is incomplete because operating-system queue creation alone does not establish Synergy Virtual Connect fabric policy or redundant RoCE connectivity. Option D is technically wrong because RoCE traffic should be consistently classified and lossless behavior must be enforced end to end, not split across two different priority values. Reference/topics: HPE Synergy networking, HPE OneView server profiles, RoCE networks, DCB/lossless Ethernet, Aruba CX data-center fabric.

The correct answer is B. The HPE ProLiant Compute DL384 Gen12 is an AI-optimized server platform built around NVIDIA Grace Hopper Superchip architecture. In this class of design, the CPU/GPU complex and high-bandwidth memory are integrated as part of the Superchip module rather than being expanded like conventional DIMM-based system memory. The HPE DL384 Gen12 data sheet describes the platform as using NVIDIA GH200 NVL2 Superchips and highlights coherent memory and memory bandwidth characteristics, which is exactly why the memory configuration is treated as tied to the Superchip selection. Option A is incorrect because the DL384 Gen12 architecture is not upgraded by freely adding more GB200 accelerators; it is based on a defined Grace Hopper Superchip platform. Option C is incorrect because EDSFF drive support is a platform/backplane architecture consideration, not simply a RAID-controller dependency. Option D is also not the governing rule for 400Gb NIC support. Reference/topics: AI server architecture, DL384 Gen12, NVIDIA GH200/NVL2, Superchip memory architecture, hardware validation.

The correct answer is A because the customer is asking for a network refresh without traditional capital purchase and also wants externalized operational management. HPE GreenLake for Networking is positioned as a Network-as-a-Service model that allows customers to consume HPE Aruba Networking capabilities in a cloud-like operating model rather than buying every component upfront. HPE’s GreenLake for Networking QuickSpecs describe it as a comprehensive NaaS offering for consuming HPE Aruba Networking Edge Services Platform capabilities in a cloud-like way. HPE Managed Services can also provide remote monitoring, management, and optimization of supported infrastructure, which aligns with the customer’s desire to move LAN management to an external provider. Option B is too narrow because the offer is not merely a software-license subscription. Option C confuses HPE GreenLake for Networking with Aruba Central-style cloud management. Option D is incorrect because the service is built around HPE Aruba Networking solutions, not generic expert support for arbitrary third-party wireless platforms. Reference/topics: HPE GreenLake for Networking, NaaS positioning, HPE Managed Services, business-outcome mapping.

The correct answer is D. HPE Alletra Storage MP B10000 supports mission-critical Peer Persistence designs using synchronous Remote Copy, and FC can be used as an underlying Remote Copy transport. HPE material for Active Peer Persistence states that the solution uses Remote Copy synchronous mode, while HPE B10000 training material describes the requirement for synchronous RC links using RCFC or RCIP and cross-site Fibre Channel or iSCSI host SAN connectivity. Options A and B are wrong because Alletra 6000 is associated with Nimble/Alletra 6000 Peer Persistence, not the same Active Peer Persistence model used with Alletra Storage MP B10000, Primera, and Alletra 9000-class arrays. Option C is not the best answer because Active Peer Persistence is a two-array high-availability model; one-to-many Remote Copy is a replication topology and should not be confused with the active-active peer-persistence protection model. The key validated design differentiator here is that B10000 supports FC-based synchronous replication for high-availability block-storage use cases. Reference/topics: HPE Alletra Storage MP B10000, Active Peer Persistence, Remote Copy, mission-critical storage design.

The correct answer is D. When a customer needs copies of protected volumes in two different locations, the design moves beyond a simple two-array synchronous replication pair. HPE Alletra Storage MP B10000 uses Remote Copy concepts that include synchronous replication for zero-data-loss protection and three-data-center designs where synchronous and asynchronous relationships are combined. In a synchronous long-distance periodic copy configuration, one target is used for synchronous protection and another target is used for periodic/asynchronous protection, giving the customer two destination locations with different recovery characteristics. HPE guidance for three-data-center Peer Persistence/Remote Copy designs describes adding two replication configurations: one for the synchronous target and one for the asynchronous target. Option A is incorrect because pure synchronous replication does not simply fan out to two synchronous targets. Option B is incorrect because synchronous replication is fundamentally a paired active/synchronous relationship, not a generic three-array synchronous mesh. Option C is too broad and does not meet the specific high-availability design implied by the question. Reference/topics: HPE Remote Copy, synchronous long-distance replication, three-data-center protection, B10000 data-protection architecture.

The correct answer is A because a traditional VMware design built on HPE Synergy and external HPE Alletra Storage MP B10000 has a much larger VMware cluster scale ceiling than an HPE SimpliVity cluster. HPE SimpliVity is a hyperconverged platform with strict federation and cluster sizing limits; HPE’s SimpliVity FAQ states that the maximum recommended cluster size is 16 nodes, while a federation can scale further across clusters. A traditional VMware architecture can scale larger at the vSphere cluster level, so the statement correctly differentiates the two approaches. Option B is incorrect because HPE Synergy does not include all VMware subscriptions automatically; VMware licensing must be sized and purchased according to the deployment model. Option C is wrong because Alletra Storage MP B10000 is not limited to VMFS-only use; it supports VMware integration patterns beyond simple VMFS datastore creation. Option D incorrectly treats Synergy as a storage system managed through the HPE Storage Integration Pack. Reference/topics: HPE SimpliVity positioning, HPE Synergy with external storage, VMware cluster sizing, traditional versus HCI design.