Pass the HP ACMX HPE7-V01 Questions and answers with ExamsMirror

The correct answer is D. Aruba Fabric Composer is a data-center fabric automation and visibility platform for ArubaOS-CX network fabrics, and it can integrate with external virtualization managers such as VMware vSphere. In a mixed HPE and non-HPE environment, this matters because the compute hardware vendor is not the deciding factor for visibility into VMware-owned networking constructs. Aruba Fabric Composer can recognize VLAN groups owned or managed by external resources such as VMware vSphere, and the user guide explicitly describes VMware vSphere as an external manager that can own and manage VLAN groups. Option A is wrong because HPE Alletra Storage MP B10000 array management belongs to HPE storage management services such as DSCC/Data Ops Manager, not Aruba Fabric Composer. Option B is wrong because SAN zoning is Fibre Channel fabric work, not a function of ArubaOS-CX Ethernet switching. Option C is also incorrect because Pensando Distributed Services Cards are not managed through Aruba Fabric Composer as a general server-card management plane. Reference/topics: Aruba Fabric Composer, VMware integration, VLAN visibility, mixed-infrastructure discovery.

The correct answer is C. The customer requirement is explicit: four SFP28 iSCSI ports per controller node. An HPE Alletra Storage MP B10000 controller pair has two nodes, so the design requires eight usable SFP28 optical connections in total when all four 25GbE ports on each node are to be populated. The BOM already includes the Ethernet host bus adapters required for the iSCSI personality; the gap is the number of optical transceivers. HPE Alletra Storage MP B10000 supports host-port configuration by node, and HPE QuickSpecs list host port limits by controller model. HPE also identifies the 10/25GbE 4-port Host Bus Adapter as the correct Ethernet HBA class for Alletra Storage MP connectivity, while the Q2P64B item is the 25Gb SFP28 short-wave extended-temperature optical transceiver. Option A incorrectly removes the HBAs. Option B adds unnecessary HBAs instead of completing the optics population. Option D replaces adapters unnecessarily when the correct Ethernet HBA capacity is already present. The required correction is to add the missing four SFP28 transceivers so that all eight 25GbE ports can be used for iSCSI. Reference/topics: B10000 host-port sizing, iSCSI connectivity, SFP28 transceiver validation, BOM review.

The correct answer is D. In HPE SimpliVity designs, non-HPE SimpliVity compute nodes can be added to consume the storage and data services provided by SimpliVity nodes, but the supported ratio depends on the validated SimpliVity platform and processor family. For Intel-based HPE SimpliVity nodes, the supported design rule in this context allows up to eight non-HPE SimpliVity servers per SimpliVity node. Option A is incorrect because compute-node designs do not require identical CPUs across every server in the way stated; compatibility and supportability are governed by the validated platform, hypervisor, cluster, and SimpliVity federation rules. Option B is too broad and unsafe: mixing processor families and chassis types inside the same federation is controlled by strict HPE support matrices and is not “fully supported” as a general rule. Option C gives the wrong AMD-based ratio for the scenario. HPE SimpliVity 380 Gen11 is documented as an Intel Xeon-based platform and is positioned for hyperconverged infrastructure with VM-centric management, data efficiency, backup, and disaster recovery. Reference/topics: SimpliVity sizing rules, compute-node attachment, federation design, HCI platform validation.

The correct answer is A because HPE Synergy can use a master/satellite interconnect design in which a smaller number of Virtual Connect modules provide the primary network intelligence, while satellite interconnect link modules extend connectivity across additional frames. This reduces the number of full Virtual Connect modules required in a multi-frame configuration, lowering hardware cost while still supporting scalable connectivity for the compute estate. In this proposal, the presence of two Virtual Connect SE 100Gb F32 modules and multiple 50Gb interconnect link modules reflects that design model. Option B describes scalability in general terms, but it does not directly identify the business and financial benefit. Option C is not the primary value proposition and does not explain the economics of the proposed topology. Option D is the opposite of the intended Synergy value: the architecture is designed to reduce, not increase, the number of expensive fabric modules in larger configurations. The course expects candidates to connect technical architecture choices to business outcomes, especially when presenting the financial impact of replacing legacy BladeSystem infrastructure with composable HPE Synergy infrastructure.

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.