HP HPE6-A86 Dumps

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 answers are C and D. TCP uses sequence numbers and requires an established connection. HPE Aruba Networking documentation references TCP sequence-number enforcement as a firewall/security function, which confirms that TCP traffic uses sequence numbers that can be tracked and validated. HPE Aruba documentation also describes TCP traffic with an “established” option for controlling TCP connection traffic in access control entries, which indicates that TCP is connection-oriented and maintains connection state. Option A is incorrect because TCP does support retransmission; HPE Aruba EdgeConnect documentation discusses features that avoid the need for TCP retransmission, which only makes sense because retransmission is a normal TCP behavior. Option B is incorrect because connectionless behavior describes UDP, not TCP. Option E is also incorrect because latency-sensitive traffic, such as real-time voice or video, commonly favors UDP because retransmission and connection-state handling can add delay. TCP is better suited for applications that need reliable, ordered delivery, such as web, file-transfer, or management traffic, rather than real-time latency-sensitive flows.

The correct answer is B. The SNMP service on the Conductor switch will respond to all SNMP queries for the stack. A CX 6200F VSF stack operates as a single logical switch. HPE Aruba Networking VSF documentation explains that one switch in the stack is the Conductor, and the Conductor runs the control-plane software and manages the ASICs of all stack members. The Standby member maintains a synchronized copy of the Conductor’s configuration database and can assume the Conductor role after a failure. HPE Aruba Networking documentation also states that configuration changes are applied on the Conductor switch and then synchronized to the Standby. Since the VSF stack is managed as one logical system, SNMP monitoring is performed against the stack through the active Conductor role, not by independently polling each member as a separate switch. Option A is incorrect because SNMP is not separately enabled per VSF member. Option C is incorrect because SNMP is not enabled by default on each OOBM port for member-specific queries. Option D is incorrect because both Conductor and Standby do not independently answer as separate stacked SNMP endpoints.

The correct answer is A. Connect using the RJ-45 console port. To perform initial configuration on an HPE Aruba Networking CX 6200M switch, especially when configuring an SVI static IP address for in-band management, you need direct CLI access before the switch has reachable IP connectivity. The HPE Aruba Networking CX 6200 installation documentation identifies the RJ-45 console port as the local serial console connection used for direct management. HPE Aruba Networking fundamentals documentation also explains that initial configuration can be performed through the console port or management port, while VLAN 1 static IP configuration can be used for in-band management. The RJ-45 management port is for out-of-band management, but it requires management interface IP settings to be usable remotely. The Aruba mobile app and Bluetooth adapter can help with some initial setup workflows, but the question asks how to connect to configure an SVI static IP address. The most direct and expected method is to use the console connection and configure the SVI through the CLI. ( hpe.com , arubanetworking.hpe.com )

The correct answer is C. Application Layer. HTTP, or Hypertext Transfer Protocol, is identified in HPE Aruba Networking documentation as an application protocol used to transfer data over the web. The same HPE Aruba Central documentation explains that HTTP defines how messages are formatted and transmitted and how web servers and browsers respond to commands. This places HTTP at the application layer because it directly supports user-facing web communication rather than packet forwarding, addressing, framing, or physical transmission. HPE Aruba documentation also describes Deep Packet Inspection and AppRF as Layer 7 or Application Layer features that classify applications and web traffic, further supporting that HTTP is treated as application-layer traffic. Option A is incorrect because the Session Layer manages sessions between systems, but HTTP itself is not categorized there in this context. Option B is incorrect because the Network Layer handles IP addressing and routing. Option D is incorrect because the Data Link Layer handles local network framing, MAC addressing, and switching behavior.

The correct answer is B. HPE Aruba Networking Central has been manually disabled on the switch. The key line in the output is Central admin state : disabled. HPE Aruba Networking AOS-CX documentation for the show aruba-central command provides an example of a switch when Aruba Central is disabled, showing Central admin state : disabled, Central connection values as N/A, and Central support mode as disabled. This indicates that the switch’s Central administrative state is disabled, so it is not attempting to connect to HPE Aruba Networking Central. Option A is incorrect because the VRF for connection : N/A value is a result of Central being disabled, not proof that the management VRF does not exist. Option C is incorrect because this command output does not report support-contract validity. Option D is incorrect because the factory-default Central behavior is not what is being shown; the output specifically reflects Central being disabled. Therefore, the correct interpretation is that Central has been manually disabled on the switch. ( arubanetworking.hpe.com )

The correct answer is D. UDP 161. SNMP uses different UDP ports depending on the monitoring function. When a Network Monitoring System collects or polls monitoring data from a CX switch, it communicates with the SNMP agent on the switch. HPE Aruba Networking AOS-CX SNMP documentation shows the SNMP agent port as UDP 161. This is the port used for SNMP polling and monitoring responses. This differs from SNMP traps or alerts, which are sent by the switch to a monitoring system on UDP 162. The question specifically asks about the Network Monitoring System collecting monitoring data from CX switches, so the required firewall allowance is UDP 161 from the monitoring system to the switch. Option A is incorrect because TCP 162 is not the standard SNMP polling port. Option B and option C are incorrect because UDP 1157 and TCP 1156 are not the SNMP polling ports used for this purpose.

The correct answer is D. If the ZTP operation detects that the switch configuration is different from the factory-default configuration, the ZTP operation ends. HPE Aruba Networking AOS-CX documentation explains that the ZTP process starts when the switch boots with the factory-default configuration. During the ZTP process, if the switch detects that its configuration is different from the factory-default configuration, the ZTP operation ends and the switch must be configured at the installation site. This directly addresses the customer’s concern: ZTP is intended for new or factory-default switches, and it should not overwrite or change switches that have already been manually configured or deployed. Option A is incorrect because the end condition is not based on a TFTP server detecting a serial-number configuration file. Option B is incorrect because being added to Central is not the stated stopping condition. Option C describes force provisioning, which can intentionally start provisioning behavior, but it does not address the concern about protecting already configured switches.

The correct answer is A. A public CA signed certificate should be deployed. The browser warning appears because the captive portal is presenting a self-signed certificate that the client device does not trust. For guest access, client devices are usually unmanaged and cannot be expected to already trust an internal or self-signed certificate authority. HPE Aruba Networking documentation for captive portal deployments recommends that production environments obtain and install a certificate issued for the site or domain by a well-known Certificate Authority. This avoids browser trust warnings and gives guest users confidence that they are connecting to the correct portal. Option B is incorrect because disabling HTTPS and using HTTP would reduce security and expose portal traffic. Option C may work only for managed devices where the self-signed or private CA can be pushed into the trust store, but that is not practical for open wired guest access. Option D can be valid for internal managed users, but for guests, a public trusted CA certificate is the best answer.

The correct answer is D. To configure a physical interface as a Layer 3 routed port on an HPE Aruba Networking CX 6300 switch, the interface must be placed in routing mode and assigned an IP address directly. This creates a routed interface rather than a bridged Layer 2 port. HPE Aruba Networking AOS-CX examples show routed physical interfaces configured with routing, followed by an ip address, and then no shutdown. The same examples contrast this with Layer 2 ports, which use no routing and VLAN commands such as vlan access or vlan trunk. Option A is incorrect because no routing makes the interface a Layer 2 interface, so assigning an IP address directly is not the correct routed-port configuration. Options B and C are incorrect because vlan access 1 configures the port as a bridged access port. The requirement specifically says the switch should be configured without a bridged port, so the correct CX configuration is a routed physical interface using routing with the IP address configured directly on the port.

The correct answer is B. The switch does not have enough PoE budget per port. The HPE Aruba Networking 580EX Series access point requires appropriate power to boot and illuminate its LEDs. HPE Aruba Networking documentation states that the 580EX Series supports 802.3bt Class 6 power or AC power. A standard HPE Aruba Networking CX 6000 48G 4SFP switch, such as the R8N86A model, is a non-PoE switch; the PoE-capable version is identified separately as the CX 6000 48G Class 4 PoE 4SFP 740W switch. Even when using a PoE-capable CX 6000 model, Class 4 PoE provides up to 30W per port, while the AP requires 802.3bt Class 6 or AC power for normal operation. Therefore, if the AP has no lights, the most likely cause from the options is insufficient or unavailable PoE power from the switch port. A wrong VLAN, missing STP configuration, or failure to connect to HPE Aruba Networking Central would not normally prevent the AP from receiving power and showing LEDs.

The correct answer is D. SNMPv3. HPE Aruba Networking AOS-CX hardening documentation recommends using SNMPv3 instead of older SNMP versions because older SNMP versions are unauthenticated and unencrypted, with the community string transmitted in plaintext. The same guide states that SNMPv3 supports different users, authentication, and strong encryption. This makes SNMPv3 the secure protocol among the options. HTTP is not the best answer because standard HTTP does not encrypt management or web traffic; HTTPS would be the secure alternative. TFTP is not secure because it does not provide encryption or strong authentication for file transfers. Telnet is also not secure because it sends session traffic, including login information, in clear text; SSH is the secure alternative for CLI management. Therefore, from the listed protocols, only SNMPv3 provides security mechanisms appropriate for secure network management, including authenticated and encrypted communication.

The correct answer is D. Peer device native VLAN ID is 1. The LLDP output shows Neighbor Port VLANID : 1, which identifies the VLAN ID advertised by the neighboring device for that port. HPE Aruba Networking AOS-CX documentation for show lldp neighbor-info explains that LLDP neighbor output displays information about neighboring devices and that the details vary based on the TLVs sent by the neighbor. In the Aruba examples, Neighbor Port VLAN ID and Neighbor Port VLAN Name are shown as LLDP fields, so the VLAN ID value in the output can be validated directly. Option A is not the best answer because although the VLAN name field is blank, the stronger validated configuration item is the VLAN ID value. Option B is incorrect because Neighbor MAU type : 10GIGBASER indicates a 10 Gigabit Ethernet BASE-R PHY type, not a 1 Gigabit transceiver. Option C is incorrect because Port: 1/1/25 is the local switch interface where the neighbor was discovered; the peer device’s port is shown separately as Neighbor Port-ID : 1/1/51. Therefore, the validated statement is that the peer device native VLAN ID is 1.

The correct answers are A and F. Valid RADIUS authentication responses include Access-Accept and Access-Reject. HPE Aruba Networking documentation explains that a RADIUS server responds to an authentication request with an Access-Accept response when authentication succeeds, or an Access-Reject response when the user is not authorized. In the answer choices, these are represented as ACCEPT and REJECT. The other options are not valid RADIUS response names in this context. “ALLOW” and “PERMIT” may describe an access-control result in plain language, but they are not the RADIUS authentication response messages used by the protocol. “DENY” and “BLOCK” are also not the listed RADIUS response types in HPE Aruba Networking documentation. In an HPE Aruba Networking environment, RADIUS is commonly used for authentication, authorization, and accounting workflows, including administrative login and network access authentication. The important exam distinction is that the RADIUS server returns Access-Accept for successful authentication and Access-Reject for failed or unauthorized authentication.

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. Switch port. The Physical Layer of the OSI model is concerned with the physical transmission of signals across network media, including electrical or optical signaling, cabling, connectors, transceivers, and physical interfaces. HPE Aruba Networking hardware and transceiver documentation describes switch ports, transceiver slots, copper cabling, fiber-optic cabling, and link LEDs as physical connection components. A switch port is therefore the only option listed that belongs directly to the Physical Layer. Option A, URL, is associated with application-level access to web resources and is not a Physical Layer item. Option C, IP address, belongs to Layer 3 because it is used for logical addressing and routing. Option D, TCP port, belongs to Layer 4 because TCP ports identify transport-layer application sessions. Although a switch port may participate in Layer 2 switching after a link is established, the physical connector/interface itself is part of the Layer 1 network infrastructure. This makes “switch port” the correct answer from the listed options.

The correct answer is B. Connect the USB Bluetooth adapter to the switch’s USB-A port. HPE Aruba Networking CX 8100 installation documentation states that the Aruba CX mobile app and Aruba USB Bluetooth adapter enable switch configuration from a mobile device. It also identifies the CX 8100 front-panel USB-A auxiliary port as the port used for file management, switch software downloads, or Aruba accessories. Therefore, for an Android mobile setup workflow using the Aruba CX mobile app, the USB Bluetooth adapter connects to the switch’s USB-A auxiliary port. The USB-C port on the CX 8100 is a serial console port, not the port for the USB Bluetooth adapter. Connecting the Android phone directly to the USB-C console port is not the Bluetooth mobile-app method. Connecting the phone to the management port with an RJ-45 adapter is also not the recommended mobile-app setup method. The supported mobile method is the Aruba CX mobile app through the USB Bluetooth adapter.

The correct answer is D. VSF stacking is supported within the same switch family members. HPE Aruba Networking AOS-CX VSF documentation states that a VSF stack supports combinations of models only within a supported switch family. For example, supported 6200 family models can stack with other supported 6200 family models, and supported 6300 family models can stack with other supported 6300 family models. The documentation also states that stacking is not supported across switch families. This means a VSF stack cannot mix unrelated platforms, such as chassis and fixed switches, or combine older AOS-S/Provision switches with AOS-CX switches in the same VSF stack. Option A is incorrect because VSF does not use proprietary backplane cabling; it uses supported Ethernet links, and the supported speeds depend on the switch family. Option B is incorrect because chassis and fixed platforms are not mixed in one VSF stack. Option C is incorrect because existing Provision/AOS-S switches cannot simply add CX switches as members in the same VSF stack.

The correct answer is C. No, SSH and HTTPS are enabled by default. HPE Aruba Networking AOS-CX hardening documentation states that, in the factory-default state, AOS-CX switches have SSH enabled on TCP port 22 and Web UI/read-write REST API enabled on TCP port 443. For the CX 6200 switch series, these services are enabled on both the default and management VRFs. These are secure management protocols because SSH encrypts CLI sessions and HTTPS encrypts web-management sessions. The same HPE Aruba guidance also notes that connections to TCP port 80 are automatically redirected to TCP port 443, which means HTTP is not used as the insecure management method. Option A is incorrect because Telnet is insecure and is not the correct default secure management protocol. Option B is incorrect because Telnet is not the default management method. Option D is incorrect because HTTP connections are redirected to HTTPS. ( arubanetworking.hpe.com )

The correct answer is B. PoE is disabled on the interface. If there are no lights on the access point, the first issue to investigate is whether the AP is receiving power. HPE Aruba Networking 550 Series installation documentation identifies Power over Ethernet as a supported power source for the AP, including IEEE 802.3bt or 802.3at PoE. HPE Aruba Networking AOS-CX documentation for the CX 6000/6100 PoE command shows that per-interface power distribution can be enabled with power-over-ethernet and disabled with no power-over-ethernet. If PoE is disabled on the switch interface, the AP will not receive power from the Ethernet cable and therefore may show no LEDs. Option A is incorrect because a missing STP configuration would not prevent the AP from powering on. Option C is incorrect because failure to reach HPE Aruba Networking Central would occur after the AP is powered and network-connected. Option D is also incorrect because a wrong VLAN can prevent management or provisioning, but it would not normally stop the AP LEDs from turning on.

The correct answer is C. The existing 5406R configuration uses an LACP trunk, with VLANs 100, 200, and 300 tagged and VLAN 50 untagged. The equivalent HPE Aruba Networking AOS-CX configuration is to create a LAG, enable LACP using lacp mode active, allow the tagged VLANs on the trunk, and configure VLAN 50 as the native VLAN. In AOS-CX, the vlan trunk native < VLAN-ID > command assigns the native VLAN to the trunk or LAG interface. Native VLAN traffic is untagged unless native VLAN tagging is specifically configured. HPE Aruba documentation also shows the command syntax for assigning native VLANs to LAG interfaces and the use of vlan trunk allowed for the VLANs carried on the trunk. Option A and option B are incorrect because lacp mode enable and the shown native VLAN syntax are not the correct CX syntax. Option D is less correct because VLAN 50 is the native untagged VLAN and does not need to be included with the tagged VLAN list. The correct CX equivalent is therefore LACP active, allowed VLANs 100, 200, and 300, and native VLAN 50.

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 D. CX 8400. The requirement asks for a chassis solution, 100G speeds to the aggregation layer, and a maximum size of 10U. HPE Aruba Networking describes the CX 8400 as a core and aggregation switch with line-rate 10GbE, 25GbE, 40GbE, and 100GbE connectivity in a compact 8-slot chassis. The installation guide also identifies the CX 8400 as an eight-slot chassis platform for core and aggregation switching. This satisfies both the 100G requirement and the physical-size requirement because 8U is below the 10U maximum. The CX 10000, CX 9300, and CX 8360 are fixed-form-factor platforms rather than chassis solutions, so they do not match the customer’s chassis requirement. Therefore, the best initial proposal from the listed options is the HPE Aruba Networking CX 8400.

The correct answer is D. QoS. Poor call quality during network congestion is commonly caused by delay, jitter, or packet loss affecting real-time voice and video traffic. HPE Aruba Networking AOS-CX Quality of Service documentation explains that QoS allows administrators to customize how different traffic types are serviced based on their characteristics and importance. QoS helps keep important traffic moving at an acceptable speed regardless of current bandwidth usage. HPE Aruba documentation also states that VoIP traffic is delay and jitter sensitive and should receive priority service for optimum transmission. Microsoft Teams voice and video traffic is latency-sensitive, so configuring QoS is the correct approach to prioritize this traffic when the network is busy. Option A, CoS, is a specific Layer 2 priority marking method that can be part of a QoS design, but the broader feature to configure is QoS. Option B, ZIP, is not relevant. Option C, IGMP, is used for multicast group management and does not solve general Teams call-quality issues.

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 A. The CX 6300M VSF stack is the Layer 3 gateway for VLAN 200 clients, so the DHCP relay configuration must be applied to interface vlan 200, the SVI for the client VLAN. The SVI should use an address in the client subnet, such as 192.168.200.1/24, and the remote DHCP server should be defined with the AOS-CX ip helper-address command. HPE Aruba Networking AOS-CX documentation states that ip helper-address < IPV4-ADDR > defines the address of a remote DHCP server or DHCP relay agent and that the DHCP relay agent forwards DHCP client requests to the defined servers. Option B is incorrect because VLAN 1 is not the VLAN 200 client gateway. Options C and D are incorrect because dhcp-relay server is not the correct AOS-CX command shown for configuring IPv4 DHCP relay on the SVI. The correct configuration is ip helper-address 192.168.1.100 under interface vlan 200.

The correct answer is B. To find the destination MAC address for a specific IP address. ARP, or Address Resolution Protocol, is used on IPv4 Ethernet networks to map a Layer 3 IPv4 address to a Layer 2 MAC address. HPE Aruba Networking AOS-CX documentation states that ARP maps network addresses assigned to devices to physical addresses, and specifically maps IPv4 network addresses to Layer 2 MAC addresses on Ethernet networks. When a host wants to send traffic to another IPv4 device on the same local network, or to its default gateway, it must know the destination MAC address to build the Ethernet frame. If the MAC address is not already in its ARP table, it sends an ARP request asking which device owns the target IP address. Option A is incorrect because ARP is not used to find a source IP address. Option C is incorrect because the device already knows its own source MAC address. Option D describes reverse mapping, which is not the purpose of a normal ARP request.

The correct answer is D. Create VSF on the CX 6200 switches and a LAG between the CX 6200 and 2530 switches. HPE Aruba Networking documentation explains that VSF allows multiple individual switches to operate as a single logical device using standard Ethernet links. The CX 6200 supports VSF stacking, so two CX 6200 aggregation switches can be combined into a single logical aggregation switch. HPE Aruba Networking Layer 2 documentation also describes link aggregation as grouping individual physical interfaces into a single logical link, increasing bandwidth and providing resiliency when links fail. In this design, the 2530 access switch can use two uplink ports in a trunk/LAG toward the aggregation layer, while the CX 6200 side operates as one logical switch because of VSF. Option A is incorrect because a CX 6200 and a 2530 cannot be placed into one common VSF stack. Option B is incorrect for the same reason: the 2530 is not stacked with the CX 6200. Option C is incomplete because a LAG from one access switch to two separate aggregation switches requires the aggregation side to act as one logical switch, which is provided by VSF in option D.

The correct answer is B. The switch control plane is shared. HPE Aruba Networking documentation explains that Virtual Switching Framework, or VSF, stacks multiple individual switches into a single logical device using standard Ethernet links. Once the VSF stack is formed, the interconnected switches operate as one virtual switch with a single control plane. HPE Aruba documentation also describes VSF as providing a single point of management access with a shared control plane across all stack members. Option A is incorrect because member IDs are part of the VSF configuration and may be assigned or changed during stack setup. Option C is incorrect because VSF is not universally limited to two members; supported stack size depends on the switch family and software support. Option D is incorrect because an independent management plane describes VSX more than VSF. HPE’s VSF-versus-VSX comparison identifies VSF as having a single management plane, while VSX has dual management planes.