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

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. HPE Zerto is the appropriate solution because the requirements describe application and VM-level cyber resilience/disaster recovery, not array management or backup-target hardware. Zerto protects virtualized workloads using near-synchronous, block-level replication and journal-based recovery, which supports very low RPOs and granular recovery points. HPE’s Zerto product material describes near-synchronous replication with recovery points measured in seconds, and HPE GreenLake for Disaster Recovery uses Zerto continuous data protection in a cloud-service model. Option B is incorrect because HPE Data Ops Manager manages HPE block storage operations and data services; it is not the DR engine for cross-hypervisor workload replication. Option C is a storage-server platform and does not provide the requested VM-level replication service. Option D, HPE StoreOnce, is a backup appliance target; it is valuable for backup retention and deduplication but does not provide near-synchronous, block-level VM replication across hypervisors. Reference/topics: HPE Zerto, HPE GreenLake for Disaster Recovery, VMware workload protection, pay-per-use data protection, block-level replication.

The correct answer is C. The exhibit shows an HPE Alletra Storage MP B10000 configuration based on QLC flash, with raw capacity below the customer’s 450 TB target. The correct capacity adjustment is to increase the number of QLC drives in the system while selecting the sparing policy that maximizes available usable capacity for the intended design. Replacing QLC with TLC is not the right direction for a high-capacity all-flash requirement because QLC media is positioned for dense, cost-efficient capacity expansion. Adding host bus adapters does not increase raw storage capacity, so option A is unrelated to the requirement. Replacing controller nodes is also unnecessary because the problem is media capacity, not controller performance. HPE Alletra Storage MP B10000 QuickSpecs identify scale-out capacity characteristics, including maximum raw capacity per shelf, confirming that the platform is intended to scale capacity through shelves and drive population rather than by changing host-connectivity cards. The correct plan is to add QLC capacity to reach the raw-capacity target and adjust sparing appropriately. Reference/topics: B10000 capacity planning, QLC all-flash sizing, sparing policy, GreenLake proposal validation.

The correct answer is A because VXLAN/EVPN data-center fabrics are normally built on a routed Layer 3 underlay. In this design, each top-of-rack switch forms independent routed links toward the core or spine layer, and equal-cost multipath routing is used to provide scale-out bandwidth and resilience. The VXLAN/EVPN overlay then provides Layer 2 and Layer 3 tenant connectivity above that routed underlay. Option B is incorrect because LAG member Layer 2 ports represent a traditional Layer 2 aggregation design, not the preferred underlay model for EVPN/VXLAN. Option C is also incorrect because standalone Layer 2 links would create an underlay that lacks the routed ECMP characteristics expected in this fabric architecture. Option D is not the best answer because LAG is not required between TOR and core switches in an EVPN routed fabric; independent routed links provide better fabric behavior and failure isolation. The course includes Aruba networking and advanced virtualization/data-center design topics, and this question tests the candidate’s ability to select the correct port model for an HPE Aruba EVPN/VXLAN solution.

The correct answer is D because the requirement is not simply additional raw capacity; it is a write-performance target of 500K IOP/s. For HPE Alletra Storage MP B10000 designs, controller-node model selection, node count, shelf count, drive population, and media layout collectively determine whether the configuration can satisfy the performance envelope. Merely increasing the number of drives, as suggested in option C, does not guarantee that the front-end controller resources, CPU, cache, and back-end connectivity can sustain the required write workload. Options A and B use lower or inappropriate node selections for this stated requirement. The B10230 model, combined with additional shelf and drive resources, is the configuration change that aligns the controller and media resources with the required write I/O target. HPE’s course outline places HPE Alletra Storage MP B10000 in both general enterprise solution design and database workload solution design, which is exactly the kind of workload-sensitive sizing exercise represented here. The proposal must be validated against the customer’s required I/O profile, not only against usable capacity.

The correct answer is B. RoCEv2 is the appropriate choice when RDMA traffic must traverse routed Layer 3 networks, multiple VLANs, and multiple switches. RoCEv1 is Layer 2 only and is therefore unsuitable when the design requires traffic to move between different routed segments or logical enclosures through the data-center network. A lossless RoCEv2 design must be planned end to end: priority flow control, ECN, QoS classification, MTU consistency, and routing paths must be aligned across the server adapters, HPE Synergy Virtual Connect domain, and Aruba CX fabric. Option A is incorrect because RoCEv1 cannot satisfy the stated Layer 3 traversal requirement. Option C is incorrect because Aruba CX 8325 is a data-center switch family capable of participating in advanced data-center designs; replacing it with CX 8400 is not inherently required just to support DCBX-style fabric behavior. Option D creates artificial separation and does not solve the multi-switch lossless-fabric requirement. Reference/topics: RoCEv2, lossless Ethernet, Aruba CX data-center switching, HPE Synergy Virtual Connect networking, workload-driven network design.

The correct answer is A because Scality RING is positioned by HPE as a scale-out object and file storage solution built on qualified HPE server platforms, including HPE Alletra Storage Server models. For a customer planning approximately 750 TB of usable software-defined storage, the design focus is the validated HPE server configuration, drive type, usable-capacity target, and Scality license sizing. HPE documentation describes the Scality RING solution as consisting of HPE server systems, Scality license and maintenance, and installation services, with licensing based on unique usable data capacity. The minimum RING configuration is not 1000 TB; HPE references a lower starting usable-capacity threshold, so option B is incorrect. Option D is also incorrect because Scality solutions and licenses are explicitly available through HPE solution packaging. Option C is not the best design statement for this customer use case because the key technical validation is platform support and capacity alignment, not a generic claim about lower-cost licensing. This maps directly to the course topic covering scale-out unstructured data platforms, including Scality, Qumulo, Cohesity, and related HPE storage-server designs.

The correct answer is C because Pensando Distributed Services Platform / Distributed Services Cards are positioned for supported HPE server platforms such as HPE ProLiant, Edgeline, and Apollo systems. The purpose is to provide distributed infrastructure services, including telemetry, policy enforcement, segmentation, and security functions close to the workload rather than forcing all traffic through centralized appliances. Option A is too broad because not all Aruba switches have Pensando silicon integrated. The switch family associated with embedded Pensando data-processing capabilities is specifically the Aruba CX 10000 class, not Aruba switching in general. Option B is incorrect because the Aruba CX 6300 is an access/switching platform, not a Pensando-integrated distributed services switch. Option D is also not a valid general positioning statement for Superdome Flex in this context; the standard HPE security positioning for Pensando DSC is not based on adding per-chassis Superdome Flex licenses. The architecture principle is that HPE can extend security and telemetry into the server edge through Pensando DSC where supported by the platform. Reference/topics: HPE security offerings, Pensando Distributed Services Platform, ProLiant/Apollo security acceleration, hybrid-infrastructure micro-segmentation.

The correct answer is A because HPE OneView for VMware vCenter provides VMware administrators with integrated HPE infrastructure management from within vCenter and supports deployment workflows for ESXi hosts on supported HPE platforms such as HPE Synergy and HPE ProLiant. In this scenario, the customer already has a Synergy, 3PAR, and VMware environment and wants to extend it for additional virtual machines running database workloads. Adding ESXi hosts through the HPE OneView for VMware vCenter integration is a valid upgrade path because it aligns server provisioning and VMware lifecycle operations with the existing management model. Option B is incorrect because it confuses infrastructure automation with the specific HPE OneView for VMware vCenter ESXi deployment function. Option C is false because HPE 3PAR has long been supported in VMware environments and can be part of Synergy-based infrastructure. Option D is imprecise: HPE OneView composes and manages infrastructure; it is not primarily a rapid VM deployment tool. The course covers database workload architectures, Synergy, HPE storage, VMware integration, and the use of HPE tools for validated traditional solution design.

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.