HP Updated HPE7-V01 Exam Questions and Answers by azlan

The correct answer is C. The customer is using older Gen9 Synergy compute modules, and the required improvement is hardware-rooted platform security. Silicon Root of Trust is an HPE firmware security capability anchored in server hardware and iLO, designed to validate firmware before boot and protect the platform from compromised firmware. HPE states that Gen10 servers introduced Silicon Root of Trust, and Gen11 systems continue that trusted-security model with enhanced iLO capabilities. Option A is incorrect because a firmware update cannot retrofit Silicon Root of Trust into Gen9 hardware that lacks the required silicon foundation. Option B misrepresents HPE OneView Global Dashboard; it provides aggregated management visibility, not centralized distribution of encryption keys and CA-signed certificates to all nodes. Option D can improve administrative integration and role control, but it does not address the deeper platform-trust gap created by the older compute generation. Reference/topics: HPE security architecture, Silicon Root of Trust, iLO security, Synergy Gen9-to-Gen11 modernization, hybrid-infrastructure protection.

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 C because HPE Synergy D3940 is an in-frame direct-attached storage module, and compute modules access it through HPE Synergy 12Gb SAS Connection Modules. For a redundant in-frame storage design, each Synergy frame that contains a D3940 storage module should include two SAS connection modules to provide redundant paths between the compute modules and the storage module. This is especially important for virtualization and software-defined storage designs such as vSAN, where storage path availability is a core design requirement. Option A is incorrect because HPE OneView Advanced licensing is associated with managed server infrastructure licensing, not separate additional licenses for every Virtual Connect or D3940 module. Option B is not required for this in-frame DAS design; Fibre Channel switches are used for SAN connectivity, not for D3940 SAS connectivity. Option D misstates Composer design: Composer redundancy is planned at the management-appliance level, not as a simple one-per-frame removal rule. This aligns with the course’s Synergy, composable infrastructure, virtualization, and storage-networking design objectives.

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.