The correct answer is D. administrators. HPE Aruba Networking AOS-CX documentation for the 4100i, 6000, and 6100 switch series states that, in addition to user-defined local groups, there are three built-in user groups: administrators, operators, and auditors. The documentation also states that the default admin account belongs to the administrators group. This makes administrators the only valid default group among the answer choices. Option A, root, is not listed as a built-in AOS-CX user group. Option B, managers, is not one of the default AOS-CX groups. Option C, super-users, is also not listed as a built-in group. These names may appear in other systems or older platforms, but on HPE Aruba Networking CX 6100 switches, the built-in local user groups are administrators, operators, and auditors. Therefore, the correct default user group from the listed options is administrators.

The correct answer is C. Input errors have occurred. The interface output shows CRC/FCS errors with a value of 1254 under the RX column. CRC/FCS errors are receive-side frame check errors, so they indicate that the switch has received corrupted frames on this interface. HPE Aruba Networking AOS-CX show interface documentation lists interface statistics including packets, bytes, dropped frames, pause frames, errors, CRC/FCS, collisions, runts, and giants, which confirms that CRC/FCS is part of the interface error statistics. Option A is incorrect because the output says VLAN Mode: access and Access VLAN: 90; an access VLAN is untagged toward the endpoint, not an 802.1Q tagged trunk VLAN. Option B is incorrect because the MTU is shown as 1500, and the Jumbos counter is 0, so the output does not indicate jumbo-frame use. Option D is incorrect because the shown output does not state that PoE is disabled. The key troubleshooting clue is the nonzero receive CRC/FCS counter. ( arubanetworking.hpe.com )

The correct answer is B. CX 6200. The feature being described is the HPE Aruba Networking AOS-CX Network Analytics Engine, or NAE. HPE Aruba Networking documentation states that NAE uses Python scripts to define which switch resources to monitor and optionally what actions to take when certain conditions are true. The NAE guide specifically applies to the CX 6200, 6300, 6400, 8xxx, 9300, and 10000 switch series, and the supported maximums page lists the CX 6200 as supporting up to 10 scripts and 10 agents. This makes the CX 6200 the correct choice from the available options. The CX 6000, CX 6100, and CX 4100i are lower access platforms and are not listed in the NAE guide’s supported product set for onboard NAE scripting. Therefore, for a customer with Python skills who wants to use self-made or Aruba-provided onboard analytics scripts, the CX 6200 is the appropriate recommendation.

The correct answers are A and E. HPE Aruba Networking AOS-CX switches support RADIUS and TACACS+ for controlling administrative access. HPE Aruba Networking security documentation describes remote AAA authentication and authorization using RADIUS or TACACS+ servers. These protocols allow administrative logins and command authorization to be managed centrally instead of relying only on local switch users. RADIUS is commonly used for authentication, authorization, and accounting services, while TACACS+ is especially useful for administrative access control because it can provide command authorization and accounting. LDAP, Diameter, and SAML are not the correct answers for the AOS-CX administrative access control protocols listed in this question. LDAP is a directory protocol, Diameter is an AAA protocol used in other service-provider contexts, and SAML is commonly used for web-based single sign-on, but they are not the two AOS-CX switch administrative access protocols being tested here. ( arubanetworking.hpe.com )

The correct answer is A. CX 6300. The configuration shown uses OSPFv2 with a process ID, redistribution of connected routes, and a route map. HPE Aruba Networking AOS-CX IP Routing documentation for the CX 6300 and related higher CX platforms includes OSPFv2 routing commands such as router ospf and redistribute connected route-map. The same command documentation shows redistribution into OSPF with a route map as a supported configuration. By contrast, the AOS-CX IP Routing Guide for lower platforms such as the 4100i, 6000, and 6100 includes OSPF command information showing platform support for OSPF on 5420 and 6200, not on the 4100i, 6000, or 6100. Therefore, from the choices provided, the CX 6300 is the switch family that supports creating this OSPF redistribution configuration. The CX 6000 and CX 6100 are access-layer switches and are not the correct choice for this OSPF route redistribution example.

The correct answer is B. 2. The diagram shows two VLANs: VLAN 10 and VLAN 20. In Ethernet switching, each VLAN represents a separate Layer 2 broadcast domain. HPE Aruba Networking documentation defines a VLAN as a single Layer 2 network that can be partitioned to create multiple distinct broadcast domains, isolated from each other unless traffic passes through a router or Layer 3 interface. In this diagram, PCs A and B are in VLAN 10, so they share one broadcast domain. PCs C and D are in VLAN 20, so they share a second broadcast domain. The Layer 3 switch has SVIs for VLAN 10 and VLAN 20, which allow routing between the two VLANs, but the SVIs do not merge the broadcast domains. They provide Layer 3 gateways for each VLAN. Therefore, the number of broadcast domains is based on the number of VLANs shown, not the number of PCs, switch links, or SVIs. Since there are two VLANs, there are two broadcast domains.

The correct answer is B. You need to specify the mgmt VRF at the end of the ping command. On HPE Aruba Networking CX switches, the out-of-band management interface uses the management VRF. If you issue a normal ping 10.1.50.11 command without specifying the management VRF, the switch attempts to send the ping using the default routing context rather than the out-of-band management interface. HPE Aruba Networking AOS-CX documentation for the ping command shows that the command supports the optional vrf < vrfname > parameter. The AOS-CX diagnostics documentation also specifically lists this as a cause of ping failure: the user intended to ping through the management VRF but forgot to add vrf mgmt to the command. The correct command would therefore be similar to ping 10.1.50.11 vrf mgmt. Option A is incorrect because the management interface can reach routed destinations if the management VRF has the proper route. Option C is incorrect because the management VRF already exists. Option D is incorrect because ping is supported.

The correct answer is A. A link between members 1 and 3 needs to be disconnected. The output shows that the current three-member VSF stack is built as a ring: member 1 connects to member 2, member 2 connects to member 3, and member 3 connects back to member 1. To insert an additional member into an existing physical ring, one of the ring links must be opened so the new switch can be cabled between the two existing members. In this case, disconnecting the link between members 1 and 3 allows the new member to be added between those members, preserving the ring topology after the new connections are made. HPE Aruba Networking VSF documentation states that VSF supports 6200F stacks in chain and ring topologies, with ring topology recommended for resiliency because each member has VSF link connectivity to two other members. Option B is incorrect because changing to chain topology is not required or preferred. Option C is incorrect because the existing VSF links are already being used for the ring. Option D is incorrect because the standby role is determined within the stack; the new member is not pre-provisioned as standby.

The correct answer is D. A DHCP server must be configured with the required options. HPE Aruba Networking AOS-CX documentation explains that ZTP is used to automatically load a switch configuration from a server when the switch boots from a factory-default configuration. The AOS-CX Fundamentals Guide for the 4100i, 6000, and 6100 switch series states that ZTP supports DHCP standards and DHCP options, and that support is limited to the listed DHCP options for ZTP on AOS-CX. The same guide describes setting up ZTP on a trusted network by preparing the configuration, setting up a TFTP server, and configuring DHCP-related information. Option B is incorrect because the guide references TFTP, not SFTP, for the ZTP server workflow. Option C is incorrect because the listed process does not use SCP for the initial template download. Option A is misleading because ZTP is enabled only when the switch is in factory-default configuration; the key requirement is the DHCP-based provisioning environment with the proper options.

The correct answer is B. There are more than 8 bits in the host portion. The subnet mask 255.255.254.0 converts to a /23 prefix because the first two octets, 255.255, represent 16 network bits, and the third octet value 254 represents seven more network bits. That gives 23 network bits total. IPv4 addresses are 32 bits long, so 32 minus 23 leaves 9 host bits. Since 9 is more than 8, option B is correct. HPE Aruba Networking documentation uses prefix length as CIDR subnet-mask notation and supports IPv4 prefix lengths from 1 to 32, matching the /23 interpretation. Option A is incorrect because “10.64” alone is not the full network portion for a /23 network. The actual network range is 10.64.0.0/23. Option C is incorrect because the broadcast address for 10.64.0.0/23 is 10.64.1.255, not 10.64.0.240. Option D is incorrect because 255.255.254.0 is /23, not /25.