[Q31-Q55] Valid HPE7-A06 Practice Test Dumps with 100% Passing Guarantee [Feb-2026]

NEW QUESTION 31
What is the correct sequence of events that occurs when a user device connects to a network using Dynamic Segmentation?

NEW QUESTION 32
An IT administrator uses AOS-CX switches to send TCP 22 trafficfrom the switch port to a remoteserver for analysis. The administrator now wants to save it locally tobedownloaded and used later in case the admin changes their mind about the approach to take.

destination file tshatk-pcap

destination tunnel file tshark-pcpap

destination cpu

destination flash:/.’my-mirror.pcnap policy Policy Minor22

NEW QUESTION 33
A pair of CX 8325 series switches a configured in a VSX cluster. Which function is executed on both VSX members during normal operation?

replies to ARP requests with thecluster vMAC

routes PIM and PIM-DR

relays DHCP requests or serves DHCP offer

periodically sends gratuitous ARP and broadcast hello packets

NEW QUESTION 34
Youare configuring an HPE Aruba NetworkingGateway Ouster with AOS-10. What is true about 802.1 X functionality incombination with gateways? (Select two.)

Users onL3-oonnoctod gateways need to perform a full authentication after re-association on theAP.

The UDG remains fixed on L2-connected gateways but not on 1.3-connected gateways.

Regardless of using gateways, the CoA message is always sent to the APs.

The gateways areused as a RADIUS proxy, while the AP is theauthenticator.

The gateways actasRADIUS Proxy only in Tunnel and Bridged Mode.

This question asks about 802.1X functionality in an AOS-10 environment involving Gateway Clusters.
* AOS-10 Gateway/802.1X Architecture:
* Authenticator:The Access Point (AP) typically acts as the 802.1X authenticator, handling EAPoL frames with the client.
* RADIUS Proxy:The Gateway Cluster (specifically the cluster leader or UDG anchor) often acts as a RADIUS proxy, forwarding RADIUS messages between the APs and the central RADIUS server (e.g., ClearPass). This simplifies RADIUS configuration as the server only needs to know about the gateway cluster.
* CoA:Change of Authorization messages from the RADIUS server are typically sent to the device acting as the RADIUS client, which is the Gateway Cluster when operating in proxy mode.
* Mobility (L2 vs L3):Roaming behavior and User Designated Gateway (UDG) assignment can differ based on whether clients maintain their IP address (L2 mobility) or potentially require new IP information (L3 mobility). L2-connected gateway deployments generally allow for more seamless UDG persistence compared to L3-connected deployments where the client might roam across subnet boundaries managed by different gateways.
* Re-authentication:Seamless roaming mechanisms aim to minimize full re-authentications during roaming events.
* Analysis of Options:
* A: Full re-authentication after re-association on L3-connected gateways might occur in some scenarios but contradicts the goal of seamless roaming.
* B: States the UDG remains fixed on L2-connected but not on L3-connected gateways. This aligns with the architectural differences in handling mobility across L2 vs L3 boundaries within a cluster.
* C: Incorrect. CoA is generally sent to the RADIUS client/proxy (the Gateway Cluster), not always directly to the APs.
* D: Correct. Gateways commonly act as a RADIUS proxy, while the AP remains the authenticator handling EAPoL with the client.
* E: Incorrect. The RADIUS proxy function is not limited to only Tunnel and Bridged modes.
* Conclusion:Options B and D accurately describe common characteristics of 802.1X operation within an AOS-10 Gateway Cluster architecture.
References:Aruba AOS-10 documentation (Gateway Clusters, User-Based Tunneling, 802.1X/RADIUS interaction, L2/L3 Mobility). This relates to “Authentication/Authorization” (9%), “Connectivity” (9%), and
“WLAN” (9%) objectives.

NEW QUESTION 35
Exhibit.

AGG-SW1 and AGG-SW2 are configured with iBGP and eBGP to AS65000. Both agg-sw1 and agg-sw2 useroute-map BGP-EXPORT and ip-prefix list local-export in the bgp configuration.
What must be done on agg-swl for the adjacent router to prefer to route all exported routes by agg-sw2?

Add set local-preference 200 to the route-map BGP-EXPORT

Add set as-path prepend 65345 65345 65345 65345 to the route-map BGP-EXPORT Match with local- export Ip prefix-list.

Add set metric 200 to the route-map BGP-EXPORT.

Add set as-path 65345 65345 65345 65345 to the route-map BGP-EXPORT Match with local-export ip prefix-list.

The goal is to make the adjacent router prefer routes exported by AGG-SW2 over AGG-SW1 for iBGP and eBGP routes to AS65000. Both switches use a route-map BGP-EXPORT with an ip-prefix list local-export.
BGP path selection uses attributes like local preference, AS path length, and metric to determine the preferred route.
* Analysis of Options:
* Option A:Setting local-preference 200 affects iBGP route selection within the same AS but has no impact on eBGP peers (external AS65000), as local preference is not advertised externally.
* Option B:Prepending the AS path with 65345 65345 65345 65345 increases the AS path length for routes exported by AGG-SW1, making them less preferred by the adjacent router (both iBGP and eBGP peers) compared to AGG-SW2’s routes, which have a shorter AS path.
* Option C:Setting metric 200 affects the MED (Multi-Exit Discriminator), which is used for eBGP route selection within the same AS but is less influential than AS path length and not applicable for iBGP.
* Option D:Incorrect syntax (set as-path without prepend) and does not achieve the desired effect.
* Why Option B is Correct:BGP route selection prioritizes the shortest AS path for both iBGP and eBGP. By prepending AS 65345 multiple times to AGG-SW1’s exported routes, AGG-SW1’s routes appear less attractive due to a longer AS path, causing the adjacent router to prefer AGG-SW2’s routes.
This is a standard BGP traffic engineering technique.
* Relevance to Certification Objectives:
* Routing (16%):Involves designing and troubleshooting BGP routing topologies, including manipulating path attributes like AS path.
* Troubleshooting (10%):Includes remediating BGP routing issues by adjusting route-maps.
References:
HPE Aruba Networking AOS-CX Configuration Guide: BGP Configuration, covering route-maps and AS path prepending.
HPE7-A06Study Guide: Details BGP path selection and traffic engineering.
HPE Aruba Networking Technical Documentation: BGP Route Manipulation, explaining AS path prepending for route preference.

NEW QUESTION 36
Refer to the exhibit which illustrates the current configuration of Router-1.

Clients of VLAN 10 require access to services hosted in the 10.1.100.0/24subnet. This ‘equites one 01 more routes to be added to Rculer-1 that do not currently exist.
Which script would install a route from 10.2.10.0/24 to 10.1.100.0/24 on Router-1? A return path is not required as part of this answer.

there is no solution as Core-1 is not part of VRF service

ip route 0.0.0.0/0 10.255.101.11 vrf service
ip route 10.1.100.0/24 1/1/1:10.255.101.11 vrf IoT-Medical

ip route 0.0.0.0/0 10.255.101.11 vrf service
ip route 10.1.100.0/24 1/1/1 vrf IoT-Medical

ip route 0.0.0.0/0 10.255.101.11 vrf service
ip route 10.255.101.0/24 1/1/1 vrf IoT-Medical
ip route 10.1.100.0/24 10.255.101.11 vrf IoT-Medical

NEW QUESTION 37
A customer wants to deploy loT security devices that are PoE-powered. Dueto its criticality. it is required that those devices remain active even during a switch software upgrade. What is a valid solution to meet customer requirements?

a VSX pairof switches for redundancy

power-over-ether net quick-poe

power-over-ethernet always-on

power-over-ethernel priority

NEW QUESTION 38
Refer to the exhibit.

Based on the screenshot, what is required to bring the secondary switch MCLAO interfacesonline”?

Use vsx-software-upgradeado on the secondary.

Update the MAE agents on the secondary.

Use the same CX OS version as on the primary.

Use the same ServiceOS version as on theprimary.

NEW QUESTION 39
Refer to the exhibit.

Acme Corp has VM workload running downstream of ToR-1 and has noticed performance degradation. They suspect ToR-1 uplinks are periodically over utilized. A partner has suggested you migrate your legacy 1U Coie-1 and Cote-2 to the CX 6400 series.
Which aspects of this platform would solve the customer’s problem, while focusing on implementing HPE Aruba Networking best practices? (Select two.)

The CX 6400 series supports multiple active forwardingpathways from ToR-1 based on multi-region design.

The proposed new core’s VSF capabilityallows multiple active forwarding pathways from ToR-1 based while eliminating the need for STP.

The proposed solutions backplane stacking permits the directly connected ESXI hosts to load balance using active LACP.

MC-LAG permits Core-1 and Core-2 to present the edge 602.3ad device as a common system ID”

The question involves a customer experiencing performance degradation due to periodic overutilization of ToR-1 uplinks to legacy Core-1 and Core-2 switches. The proposed solution is to migrate to CX 6400 series switches, and the task is to identify which aspects of the CX 6400 platform address the issue while adhering to HPE Aruba Networking best practices.
* Analysis of Options:
* Option A:Incorrect. The CX 6400 does not support “multi-region design” as a feature for active forwarding pathways.
* Option B:Correct. Virtual Switching Framework (VSF) on the CX 6400 allows multiple active forwarding pathways by creating a single logical switch from multiple physical switches, eliminating the need for STP in the core and reducing uplink congestion.
* Option C:Incorrect. Backplane stacking does not directly enable ESXi hosts to load balance using active LACP; this is unrelated to uplink utilization.
* Option D:Correct. Multi-Chassis Link Aggregation (MC-LAG) allows Core-1 and Core-2 to form a single logical 802.3ad (LACP) device, enabling active-active uplinks from ToR-1 and load balancing traffic to prevent overutilization.
* Why B and D are Correct:The performance degradation is caused by uplink overutilization, likely due to STP blocking redundant paths or inefficient load balancing. The CX 6400’s VSF capability combines multiple switches into a single logical device, allowing all uplinks from ToR-1 to be active without relying on STP, which often blocks redundant paths. MC-LAG further enhances this by presenting Core-1 and Core-2 as a single LACP system, enabling ToR-1 to use all uplinks actively via LACP load balancing. These features align with HPE Aruba Networking best practices for high-availability and performance in campus core deployments.
* Relevance to Certification Objectives:
* Network Resiliency and Virtualization (8%):Designing and troubleshooting VSF and MC- LAG for resiliency and redundancy.
* Performance Optimization (6%):Analyzing and remediating uplink utilization issues.
* Connectivity (9%):Applying advanced networking architectures like VSF and MC-LAG.
References:
HPE Aruba Networking AOS-CX Configuration Guide: VSF and MC-LAG Configuration, detailing active forwarding and load balancing.
HPE7-A06Study Guide: Covers core switch resiliency and performance optimization.
HPE Aruba Networking Technical Documentation: CX 6400 Series Deployment Best Practices.

NEW QUESTION 40
Exhibit.

The customer has VSX clusters intwo locations interconnected over an MC-LAG interface.
If active-gateway configuration uses the same virtual IP address and vMAC on each of the VSX nodes, what must you take into consideration0

Transit traffic will Increase over the VSX interconnect MC-LAG.

Each ARP request will result in four responses.

The configuration would end up in an async setup.

Outbound traffic will be load-balancedover all VSX members for each session.

The scenario describes two separate VSX clusters interconnected via MC-LAG, where both clusters are configured to use theexact samevirtual IP address and virtual MAC address for their respective Active Gateway SVIs.
* Active Gateway Scope & Conflict:Active Gateway provides a highly available default gatewaywithina single VSX cluster (L2 domain). The vIP/vMAC combination should be unique within its L2 broadcast domain.
* Interconnecting Clusters with Same vIP/vMAC:When two VSX clusters using the identical Active Gateway vIP/vMAC are interconnected at Layer 2 (even via MC-LAG), this creates a situation where the same active L2 (vMAC) and L3 (vIP) address exists in multiple places within the extended broadcast domain.
* Consequences:This leads to MAC address conflicts and L3 ambiguity. ARP resolution becomes unreliable, potentially causing ARP tables to flap on connected devices. Traffic forwarding becomes unpredictable, as packets destined for the vIP/vMAC might be delivered to the “wrong” cluster. This unstable and unpredictable state is sometimes referred to as an asymmetric or “async” setup.
* Analysis of Options:
* A: ISL traffic might change, but it’s a symptom, not the root problem.
* B: Multiple ARP replies would occur, contributing to the confusion.
* C: The configuration results in an “async setup,” accurately describing the unstable state caused by duplicate active L2/L3 addresses across the interconnected L2 domain.
* D: Load-balancing happens within a cluster; this setup causes conflict, not predictable load balancing across clusters.
* Conclusion:Reusing the same Active Gateway vIP and vMAC across interconnected VSX clusters is not a valid design and leads to an unstable, asymmetric (“async”) environment due to address duplication within the extended L2 domain. Option C best describes this problematic outcome.
References:Aruba VSX Design and Best Practices Guides (Active Gateway uniqueness, Interconnecting VSX clusters). This relates to “Network Resiliency and virtualization” (8%), “Routing” (16%), and
“Troubleshooting” (10%) objectives.

NEW QUESTION 41
An administrator is monitoringthird-party WLAN transmitters m HPE Aruba Networking Central and some of them are classified as rogue and suspected rogue How aresuspected rogues classified when using the default classification method for the rule “Suspected AP On-Prem” in HPE Aruba Networking Central?

signal level = ‘-65 dbM- AND WLAN classification =”On-Prem”

signal level = “-55 dbM” AND WLAN classification =”Interfering”

signal level =”-50 dbM” AND WLAN classification = “Interfering”

signal level = “-50 dbM” ANDWLAN classification = “On Wire”

NEW QUESTION 42
Exhibit.

An end-to-end QoS design needs to be Implemented for wired and wireless. What is needed on the LAN side to maintain the correct DSCP tags?

to create a custom DSCP mapping as WLAN DSCP values are different

to trust at DSCP-marked packetsin the QoS interior ports

tocreate a WMM la DSCP mapping on the WLAN side

to create a WMM to DSCP mapping on the LAN Edge

NEW QUESTION 43
Acme is having BGP issues with its AOS-CX switch and has asked you to helptroubleshoot the issue You have access to the CLI ofthe switch. Which command can you use to begin troubleshooting?

show run | route destination!

show debug start

snow buffer | debug

show debug destinations

NEW QUESTION 44
Refer to the exhibit.

IGMP v3 was enabled on both VSX switches. Which switch becomes the IGMP querier forclients connected to Ace-1 switch?

Agg-2

both Agg-1 and Agg-2

Agg-1

Active gateway IP will be used as IGMP querier.

NEW QUESTION 45
With the configuration oftwo CX 8325 switches in the VSX cluster, how would you prepare a link- aggregation for a 7000 gateway for a zero-touch provision to support protocol-based port redundancy?

The goal is to configure a Link Aggregation Group (LAG) on a VSX cluster (pair of CX 8325 switches) that connects to an Aruba 7000 series gateway undergoing Zero Touch Provisioning (ZTP). The LAG needs to support “protocol-based port redundancy” (LACP) and allow connectivity during ZTP.
* VSX Requirement:Since the LAG connects to two separate physical switches operating as a VSX pair, the LAG must be configured as a Multi-Chassis LAG (MC-LAG) on the switches. This allows the gateway to form a single LAG across both upstream devices. The command multi-chassis under the interface lag <id> context enables this.
* Protocol Redundancy Requirement:”Protocol-based port redundancy” indicates that Link Aggregation Control Protocol (LACP) should be used to dynamically negotiate and manage the LAG bundle between the switches and the gateway. The command lacp mode active enables LACP in active negotiation mode.
* ZTP Requirement:During ZTP, the gateway might not have its full configuration, including LACP settings, enabled immediately. To ensure the gateway can establish basic IP connectivity for ZTP (e.g., reach Activate/Central via DHCP/DNS), the switch ports should allow traffic even if LACP negotiation hasn’t completed. The lacp fallback feature enables this, allowing individual LAG member ports to become active if LACP PDUs are not received from the peer.
* Analyzing the Options:
* A)Configures lacp mode active and lacp fallback butlacksthe multi-chassis command required for VSX.
* B)Correctly configures the LAG as multi-chassis, enables lacp mode active, and enables lacp fallback. This meets all requirements.
* C)Configures multi-chassis but uses potentially older or less standard syntax lacp enable and lacp fail-over instead of lacp mode active and lacp fallback.
* D)Lacks the multi-chassis command and uses potentially older/less standard syntax.
* Conclusion:Option B provides the complete and correct configuration using standard AOS-CX syntax to create an MC-LAG on the VSX pair with LACP enabled for redundancy and LACP fallback enabled to support gateway connectivity during ZTP.
References:AOS-CX VSX Guide (MC-LAG configuration), AOS-CX Link Aggregation Guide (LACP, LACP Fallback commands and usage), ArubaGateway ZTP documentation. This relates to “Network Resiliency and virtualization” (8%), “Switching” (19%), and “Connectivity” (9%) objectives.

NEW QUESTION 46
Refer to the four numborod slops in the exhibit.

Which action is the fourthstep in applying a role-to-role ACL on thetraffic from mobile device M1 to roleH2?

Switch A1 determines the destination role based on destination MAC or destination IP and enforces role-to-role ACLs.

Gateway 1 forwards thetraffic over the sialic VXLAN tunnel to the edge switch; this packet carries the Group Policy ID corresponding to the role ofM1.

The AP forwards the packet from M1 to gateway 1.

The edge switch acts as the intermediate node and transfers the Group Policy ID over static VXLAN to dynamic VXLAN tunnel and forwards the packet to switch Al.

The question asks for the fourth step in applying a role-to-role ACL on traffic from a mobile device (M1) to a role (H2) in a network using Dynamic Segmentation with VXLAN. This follows question 17, which identified the first step as the AP forwarding the packet to the gateway.
* Analysis of Options:
* Option A:Correct. The fourth step involves the destination switch (Switch A1) determining the destination role (H2) based on the destination MAC or IP address and applying the role-to-role ACL to permit or deny the traffic.
* Option B:Describes an earlier step (likely second or third) where the gateway forwards traffic over a VXLAN tunnel.
* Option C:Describes the first step, as identified in question 17.
* Option D:Describes an intermediate step (likely third) where the edge switch transfers the Group Policy ID over VXLAN.
* Why Option A is Correct:In HPE Aruba Networking’s Dynamic Segmentation architecture, the traffic flow for role-based ACLs in a VXLAN environment follows these steps:
* The AP forwards the packet from M1 to the gateway (question 17).
* The gateway assigns the source role (M1’s role) and forwards the packet over a VXLAN tunnel with the Group Policy ID.
* The edge switch transfers the Group Policy ID to the destination switch (A1) via VXLAN.
* Switch A1 determines the destination role (H2) based on the destination MAC or IP address and enforces the role-to-role ACL, as defined in the Group-Based Policy (GBP).
The fourth step is critical for policy enforcement, ensuring that traffic complies with the security policies defined between the source and destination roles, providing secure network segmentation.
* Relevance to Certification Objectives:
* Security (10%):Designing and troubleshooting role-based security policies in customer networks.
* Switching (19%):Implementing Layer 2/3 interconnection technologies like VXLAN for policy enforcement.
* WLAN (9%):Troubleshooting wireless traffic flows in Dynamic Segmentation.
References:
HPE Aruba Networking AOS-10 Configuration Guide: Dynamic Segmentation and VXLAN, detailing role- based policy enforcement.
HPE7-A06Study Guide: Covers Group-Based Policy and Dynamic Segmentation workflows.
HPE Aruba Networking Technical Documentation: Tunneled Node and Role-Based ACLs.

NEW QUESTION 47
Which EAP methods arc supported when configuring The 802.1X supplicant feature on an AOS-CX switch?
(Selecttwo.)

EAP-TLS

EAP-TTLS

EAP-MD5

EAP-PEAP

EAP-TEAP

NEW QUESTION 48
Following HPE Aruba Networking best practice, dick where you implement loop protection.

NEW QUESTION 49
A customer has configured eBGP peering using local AS 65000 with two routers from a CX 6300 VSF stack with thefollowing switch ports:
[ports connecting to router-1 10.10.10.2]

The LAGs are connected lo third-party L2 switches, which are used as a transit network for the remote eBGP routers. To optimise the possible BGP peering issues. The AOS-CX switch Is configured with theglobal settings:

What needs to be done on the AOS_CX switch to enable the bidirectional forwarding with the eBGP peers?

Option A

Option B

Option C

Option D

NEW QUESTION 50
Exhibit.

After Implementing a distributed overlay with distributed anycast gateways, you noticed that toomany ARP packets are being replicated to every access (leaf) switch Which command can you use to optimize the network?

vlan 10 arp-suppression vlan 11 arp-suppression

evpn arp-suppression

evpn ip proxy-arp

interface vlan 10 ip proxy-arp interface vlan 11 ip proxy-arp

NEW QUESTION 51
Which tables arc synchronized between a pair ofCX 8325 switches in a VSX cluster? (Select two.)

BGP Neighbors

MAC address

Spanning-TreeProtocol (STP)

IP Routing

Link Layer Discovery Protocol (LLDP)

NEW QUESTION 52
Match the network technology to the customer requirement.

* Establish redundant links between the aggregation and core layers:When using Layer 3 routing between network layers (like Aggregation and Core),ECMP (Equal Cost Multi-Path)allows the routing protocol (e.g., OSPF, BGP) to utilize multiple links simultaneously if they have the same routing cost. This provides both redundancy (if one link fails, traffic uses the others) and load sharing across the links.
References:AOS-CX IP Routing Guide (OSPF, BGP, ECMP). Relates to “Routing” (16%), “Network Resiliency and virtualization” (8%).
Extend layer 2 across multiple sites:VXLAN (Virtual Extensible LAN)is the overlay technology specifically designed for this purpose. It encapsulates Layer 2 Ethernet frames within UDP packets, allowing them to be tunneled across an underlying Layer 3 network infrastructure, effectively stretching Layer 2 domains (VLANs) between physically separate locations.
References:AOS-CX VXLAN Guide.Relates to “Switching” (19%), “Connectivity” (9%).
Identify individual layer 2 segments in an overlay:Inside the VXLAN header, theVNI (VXLAN Network Identifier)serves as the segment identifier. Each unique Layer 2 segment (like a specific VLAN being extended) is mapped to a unique 24-bit VNI, allowing the overlay network to differentiate between traffic belonging to different L2 domains, even when tunneled between the same VTEPs (VXLAN Tunnel Endpoints).
References:AOS-CX VXLAN Guide, RFC 7348 (VXLAN).Relates to “Switching” (19%), “Connectivity” (9%).
Minimize configuration steps to establish tunnels between sites:While VXLAN provides the data plane encapsulation,EVPN (Ethernet VPN)acts as the modern control plane for VXLAN overlays. Using MP-BGP extensions, EVPN dynamically discovers VTEPs and advertises MAC address and IP reachability information. This significantly reduces configuration complexity compared to older static VXLAN or flood- and-learn methods, as VTEP peer relationships and endpoint learning are automated by the control plane, thus minimizing manual steps to establish connectivity.
References:AOS-CX EVPN Guide.Relates to “Routing” (16%), “Switching” (19%), “Connectivity” (9%).

NEW QUESTION 53
Aplying the command “ip Igmp snooping blocked VLAN 6. 6* on a port …

won’t prune multicast on that port on VLAN 5 and 6

won’t accept multicast Igmp joins on that port or VLAN 5 and 6.

won’t allow multicast traffic between VLAN 5 and 6.

won’t allow multicast on that port in VLAN 5 and 6 and disables the port.

NEW QUESTION 54
Review the diagram and existing configuration of RouterA above. Which configuration changes are necessary to permit load balancing between RouterA and RouterB? (Selecttwo) Exhibit.

NEW QUESTION 55
You see the output unknown the first time you in the command, but the next time you see the following information displayed.

What aresome things you could took at in the switch to troubleshootthe issue? (Select two.)

diag interface transceiver al

diag interface 1/VX transceiver all

diag cable-diagnostic 1/1/X

diag cable 1/1/X

diag 1/1/X transceiver all

[Q31-Q55] Valid HPE7-A06 Practice Test Dumps with 100% Passing Guarantee [Feb-2026]

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