Mar-2026 Pass HP HPE7-A06 Exam in First Attempt Easily [Q28-Q44]

Mar-2026 Pass HP HPE7-A06 Exam in First Attempt Easily

Free HPE7-A06 Exam Files Downloaded Instantly 100% Dumps & Practice Exam

NEW QUESTION # 28
Which EAP methods arc supported when configuring The 802.1X supplicant feature on an AOS-CX switch?
(Selecttwo.)

• A. EAP-TEAP
• B. EAP-TLS
• C. EAP-TTLS
• D. EAP-PEAP
• E. EAP-MD5

Answer: B,D

Explanation:
The question asks which EAP (Extensible Authentication Protocol) methods are supported when configuring the 802.1Xsupplicantfeature on an AOS-CX switch (i.e., the switch acting as the client authenticating to another device).
* AOS-CX 802.1X Supplicant:Allows the switch itself to authenticate using 802.1X.
* Supported EAP Methods:Switch implementations typically support a subset of common EAP methods for the supplicant role. Secure methods are preferred. AOS-CX documentation for the dot1x supplicant eap-method command typically lists supported types. Common secure methods found in documentation include EAP-TLS and EAP-PEAP (usually with MSCHAPv2). EAP-MD5 is often supported but insecure.
* Analysis of Options (Select Two):
* A. EAP-TLS: A secure, certificate-based method commonly supported by enterprise supplicants.
Likely supported.
* B. EAP-TTLS: Another secure tunneled method, but PEAP is sometimes more common in switch supplicants. Support needs verification in specific AOS-CX docs.
* C. EAP-MD5: Simple challenge-response, but insecure. Often supported for legacy reasons.
* D. EAP-PEAP: Secure tunneled method using server-side certificate and typically username
/password (MSCHAPv2) inside. Commonly supported.
* E. EAP-TEAP: A newer tunneled method, less likely to be supported than PEAP/TLS in switch supplicants.
* Conclusion:Based on typical enterprise requirements and likely AOS-CX capabilities documented for the supplicant feature, the secure methods EAP-TLS(A) and EAP-PEAP (D) are the most probable supported options among the choices.
References:AOS-CX Security Guide (802.1X Supplicant configuration, supported EAP methods). This relates to "Security" (10%) and "Authentication/Authorization" (9%).

NEW QUESTION # 29
Refer to thefour numbered steps in theexhibit.

Which action is the first step in applying a role-to-role ACL on thetraffic from mobile device M1 to role H2?

• A. Switch A1 determines the destination role based on destination MAC or destination IP and enforces role-to-role ACLs.
• B. The AP forwards the pocket from M1 to gateway 1.
• C. Gateway 1 forwards the traffic over the static VXLAN tunnel to the edge switch, this packet carries the Group Policy ID corresponding to the role of M1.
• D. The edge switch acts as the intermediate node and transfers theGroup Policy ID over static VXLAN to dynamic VXLAN tunnel and forwards the packet to switch A1.

Answer: B

Explanation:
The question asks for the first step in applying a role-to-role ACL (Access Control List) on traffic from a mobile device (M1) to a role (H2) in a network using Dynamic Segmentation with VXLAN and role-based policies.
* Analysis of Options:
* Option A:Describes an intermediate step where the edge switch transfers the Group Policy ID over VXLAN, which occurs later in the process.
* Option B:Correct. The first step is the AP forwarding the packet from the mobile device (M1) to the gateway, which initiates the traffic flow in a tunneled Dynamic Segmentation setup.
* Option C:Describes a later step where the destination switch (A1) enforces the role-to-role ACL, after the packet has traversed the network.
* Option D:Describes a step where the gateway forwards traffic over a VXLAN tunnel, which occurs after the AP forwards the packet.
* Why Option B is Correct:In HPE Aruba Networking's Dynamic Segmentation architecture, wireless clients (e.g., M1) connect to an AP, which tunnels traffic to a gateway (e.g., in tunneled mode). The first step in the traffic flow is the AP forwarding the client's packet to the gateway, which then processes the packet for role assignment and policy enforcement. This aligns with the role-to-role ACL application process, where the gateway applies policies based on the source (M1's role) and destination (H2's role) using Group Policy IDs over VXLAN.
* Relevance to Certification Objectives:
* Security (10%):Involves designing and troubleshooting role-based security policies in customer networks.
* WLAN (9%):Includes implementing and troubleshooting wireless traffic flows in Dynamic Segmentation.
* Switching (19%):Covers Layer 2/3 interconnection technologies like VXLAN for policy enforcement.
References:
HPE Aruba Networking AOS-10 Configuration Guide: Dynamic Segmentation and VXLAN, detailing traffic flow.
HPE7-A06Study Guide: Covers role-based ACLs and Dynamic Segmentation workflows.
HPE Aruba Networking Technical Documentation: Tunneled Node and Role-Based Policy Enforcement.

NEW QUESTION # 30
The clientwouldlike to automate the process of troubleshooting issues to have better visibility. Which solution would you recommend for your client?

• A. HPE Aruba Networking Switch Multi-Edit Software
• B. HPE Aruba Networking F3bric Compose
• C. Automate processes with scripting like Python.
• D. AlOps integrated into HPE Aruba Networking Central

Answer: D

Explanation:
The client wants to automate troubleshooting processes and gain better visibility into their network. We need to identify the recommended Aruba solution.
* Analysis of Options:
* A. HPE Aruba Networking Fabric Composer: A tool primarily for data center fabric provisioning and management, not general campus troubleshooting automation.
* B. HPE Aruba Networking Switch Multi-Edit Software: Likely refers to configuration management features (e.g., in Central or NetEdit) for applying changes to multiple switches, not primarily focused on automated troubleshooting or visibility.
* C. Automate processes with scripting like Python: AOS-CX supports on-box scripting (NAE) and REST APIs, enabling custom automation for monitoring and troubleshooting. While powerful, it requires development effort.
* D. AIOps integrated into HPE Aruba Networking Central: Aruba Central's AIOps capabilities are specifically designed to enhance visibility and automate aspects of troubleshooting. It uses AI
/ML to analyze network data, detect anomalies, provide insights into potential issues, correlate events, and offer prescriptive recommendations, directly addressing the client's need for better visibility and automated assistance with troubleshooting.
* Conclusion:While custom scripting (C) allows automation, Aruba Central AIOps (D) is the platform- integrated solution specifically marketed and designed by HPE Aruba Networking to provide enhanced visibility and automated insights fortroubleshooting campus networks. It is the most direct and recommended solution among the options for achieving these goals within the Aruba ecosystem.
References:Aruba Central documentation (AIOps features), AOS-CX NAE and REST API documentation.
This relates to "Troubleshooting" (10%) and "Performance Optimization" (6%) objectives.

NEW QUESTION # 31
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?

• A. signal level ="-50 dbM" AND WLAN classification = "Interfering"
• B. signal level = '-65 dbM- AND WLAN classification ="On-Prem"
• C. signal level = "-55 dbM" AND WLAN classification =''Interfering"
• D. signal level = "-50 dbM" ANDWLAN classification = "On Wire"

Answer: B

Explanation:
The question asks how suspected rogue APs are classified using the default classification method for the
"Suspected AP On-Prem" rule in HPE Aruba Networking Central.
* Analysis of Options:
* Option A:Correct. Suspected rogues are classified with a signal level of -65 dBm (indicating proximity) and WLAN classification of "On-Prem" (indicating they are on the premises).
* Option B:Incorrect. A signal level of -55 dBm is too strong, and "Interfering" is not specific to on-premises rogues.
* Option C:Incorrect. A signal level of -50 dBm is even stronger, and "Interfering" is incorrect.
* Option D:Incorrect. "On Wire" classification applies to wired rogue detection, not wireless on- premises APs.
* Why Option A is Correct:In HPE Aruba Networking Central, the "Suspected AP On-Prem" rule identifies rogue APs based on their signal strength and location. A signal level of -65 dBm indicates the AP is close enough to be on the premises, and the "On-Prem" classification confirms it's detected within the managed network's environment. This default rule helps identify potential security threats by flagging unauthorized APs with moderate to strong signals, distinguishing them from interfering or distant APs, as per Aruba's wireless security framework.
* Relevance to Certification Objectives:
* WLAN (9%):Designing and troubleshooting RF attributes and wireless security functions.
* Security (10%):Troubleshooting and identifying rogue APs in customer networks.
* Troubleshooting (10%):Analyzing wireless issues using Aruba Central tools.
References:
HPE Aruba Networking Central User Guide: Rogue AP Detection and Classification.
HPE7-A06Study Guide: Covers wireless security and rogue AP management.
HPE Aruba Networking Technical Documentation: Wireless Security and Rogue Detection Best Practices.

NEW QUESTION # 32
Which is a best practice for configuringGBP?

• A. Configure GBP classes to have a destination role that is different from theassociated user role.
• B. Configure GBP classes to have a destination role that is the same as the associated user rote.
• C. Use downloadable user roles (DUR) to configure GBP.
• D. Use static user roles (SUR) to configure GBP

Answer: C

Explanation:
The question asks for a best practice when configuring Group-Based Policy (GBP). GBP simplifies policy management by assigning users/devices to roles and defining policies between these roles, often leveraging dynamic assignment from an authentication server.
* GBP Concepts:Policies are typically defined based on source and destination roles. Roles can be assigned statically on the switch or dynamically via an authentication server like ClearPass.
* Analysis of Options:
* A & C: Policies define interactionsbetweenroles (source role to destination role). These roles can be the same (intra-role policy) or different (inter-role policy). Neither option represents a singular
"best practice" for all configurations.
* B: Using Static User Roles (SUR) is possible but less flexible and scalable than dynamic assignment for large or complex environments.
* D: Using Downloadable User Roles (DUR) is generally considered a best practice. DUR allows roles and associated policies (including GBP attributes like GPID) to be centrally defined on an authentication server (e.g., ClearPass) and dynamically assigned to users/devices uponsuccessful authentication. This provides scalability, consistency, and easier management.
* Conclusion:Leveraging Downloadable User Roles (DUR) from a central authentication server like ClearPass is a best practice for implementing scalable and manageable Group-Based Policies.
References:Aruba Dynamic Segmentation concepts, Group-Based Policy (GBP) documentation, Aruba ClearPass integration guides. This relates to "Security" (10%) and "Authentication/Authorization" (9%) objectives.

NEW QUESTION # 33
AnOSPF router has teamed a path to an external network oy both an El and an E2 advertisement, both routes having the same path cost. Which path -will the router prefer?

• A. The router will prefer the E2 path.
• B. Both routes will be suppressed until the path conflict has been resolved.
• C. The router will prefer the E1 path.
• D. The router will use both paths equally by means ofECMP

Answer: C

Explanation:
The question involves an OSPF router receiving both an E1 (External Type 1) and an E2 (External Type 2) advertisement for an external network with the same path cost. The task is to determine which path the router will prefer.
* Analysis of Options:
* Option A (ECMP):Equal-Cost Multi-Path (ECMP) is used when multiple paths have the same total cost, but E1 and E2 routes have different metric calculations, so ECMP does not apply here.
* Option B (Prefer E2):Incorrect, as E2 routes are preferred only when E1 routes are not present or have a higher total cost.
* Option C (Suppressed):OSPF does not suppress routes due to path conflicts; it selects the best path based on metrics.
* Option D (Prefer E1):Correct. OSPF prefers E1 routes over E2 routes because E1 routes include the internal cost to the ASBR (Autonomous System Boundary Router) plus the external cost, providing a more accurate total cost.
* Why Option D is Correct:In OSPF, external routes are advertised as E1 or E2. E1 routes include both the external cost (advertised by the ASBR) and the internal cost to reach the ASBR, making them more precise for path selection. E2 routes only consider the external cost and are the default for redistributed routes unless explicitly configured as E1. When an OSPF router receives both E1 and E2 routes with the same external cost, it prefers the E1 route because it accounts for the total path cost, including internal network topology. This is per OSPF standards (RFC 2328).
* Relevance to Certification Objectives:
* Routing (16%):Involves designing and troubleshooting OSPF routing topologies, including external route types (E1 vs. E2).
* Troubleshooting (10%):Includes analyzing OSPF path selection to resolve routing issues.
References:
HPE Aruba Networking AOS-CX Configuration Guide: OSPF Configuration, detailing E1 and E2 route types.
HPE7-A06Study Guide: Covers OSPF external route selection and path preference.
RFC 2328: OSPF Version 2, explaining E1 and E2 route metrics and preference.

NEW QUESTION # 34
Exhibit.

• A.
• B.
• C.
• D.

Answer: C

Explanation:
The question involves configuring an OSPF virtual link to extend area 0 across a non-backbone area, based on an exhibit (not provided) and four configuration options (A to D). Since the exhibit is unavailable, I will assume a typical scenario where a virtual link is needed to connect two area 0 segments through a transit area (e.g., area 1).
* Analysis of Options (Assumed Context):A virtual link is configured using the area <transit-area> virtual-link <router-id> command in the OSPF process. The correct option likely includes:
* Option A:Incorrect syntax or incorrect router ID/area for the virtual link.
* Option B:Incorrect configuration, possibly missing the virtual link or using wrong parameters.
* Option C:Correct. Likely includes the proper command, e.g., area 1 virtual-link 2.2.2.2, where area 1 is the transit area and 2.2.2.2 is the router ID of the remote ABR.
* Option D:Incorrect, possibly configuring an unnecessary or incorrect virtual link.
* Why Option C is Correct:OSPF requires all areas to connect to the backbone area (area 0). If two area
0 segments are separated by a non-backbone area (e.g., area 1), a virtual link is configured between the Area Border Routers (ABRs) to logically extend area 0 through the transit area. The command area
<transit-area> virtual-link <remote-router-id> is used, specifying the transit area and the router ID of the remote ABR. Option C is assumed to provide the correct syntax and parameters based on standard OSPF virtual link configurations, ensuring area 0 connectivity and proper route advertisement.
* Relevance to Certification Objectives:
* Routing (16%):Designing and troubleshooting OSPF topologies, including virtual links.
* Troubleshooting (10%):Resolving OSPF area connectivity issues.
References:
HPE Aruba Networking AOS-CX Configuration Guide: OSPF Configuration, detailing virtual link setup.
HPE7-A06Study Guide: Covers OSPF advanced configurations like virtual links.
RFC 2328: OSPF Version 2, explaining virtual link functionality.

NEW QUESTION # 35
Exhibit.

Acme Corp has VM workload running from ToR-1. and has noticed performancedegradation They suspect ToK-1 uplinks are periodically overutilized. List valid reasons whyToR-1 uplinks 3re being overutilized based on the diagram. (Select two.)

• A. Core-2 has been incorrectly configured as the root bridge
• B. Thecustomer has used the default MSTP region configuration
• C. ToR-1uplinks and downlinks are both running spanning-tree port-type admin-network.
• D. Core-1 and Core-2 are not running the same firmware
• E. The VLAN to instance mapping is not the same on all switches.

Answer: B,E

Explanation:
The question involves Acme Corp experiencing performance degradation due to overutilized uplinks from ToR-1 to Core-1 and Core-2, with a diagram (not provided) indicating a potential MSTP (Multiple Spanning Tree Protocol) issue. The task is to identify valid reasons for uplink overutilization.
* Analysis of Options:
* Option A:Incorrect. Incorrect root bridge configuration (e.g., Core-2 as root) may cause suboptimal paths but is not directly linked to uplink overutilization without further context.
* Option B:Correct. Inconsistent VLAN-to-instance mappings across switches can cause MSTP to block unexpected ports, funneling traffic through fewer uplinks and causing overutilization.
* Option C:Incorrect. Firmware mismatches may cause compatibility issues but are unlikely to directly cause uplink overutilization.
* Option D:Correct. Using the default MSTP region configuration (e.g., default region name and revision) across switches can lead to all switches forming a single MSTP region, potentially causing suboptimal topology and uplink overuse.
* Option E:Incorrect. Running MSTP with admin-network port-type on uplinks and downlinks is not a standard cause of overutilization; it's a specific port role.
* Why B and D are Correct:MSTP relies on consistent region configurations (region name, revision number, VLAN-to-instance mappings) to create efficient topologies. If VLAN-to-instance mappings differ (Option B), switches treat each other as separate regions, leading to blocked ports and traffic concentration on fewer uplinks, causing overutilization. Similarly, using the default MSTP region configuration (Option D) without customizing the region name or revision can result in all switches forming a single region with suboptimal spanning tree instances, potentially overloading specific uplinks. Both issues disrupt MSTP's ability to balance traffic across redundant paths, aligning with HPE Aruba Networking's MSTP troubleshooting scenarios.
* Relevance to Certification Objectives:
* Network Resiliency and Virtualization (8%):Troubleshooting MSTP for redundancy and fault tolerance.
* Switching (19%):Diagnosing Layer 2 issues, including MSTP misconfigurations.
* Performance Optimization (6%):Remediating uplink utilization issues.
References:
HPE Aruba Networking AOS-CX Configuration Guide: MSTP Configuration, detailing region and VLAN mapping.
HPE7-A06Study Guide: Covers MSTP troubleshooting and optimization.
HPE Aruba Networking Technical Documentation: MSTP Best Practices and Troubleshooting.

NEW QUESTION # 36
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?

• A. vlan 10 arp-suppression vlan 11 arp-suppression
• B. evpn ip proxy-arp
• C. interface vlan 10 ip proxy-arp interface vlan 11 ip proxy-arp
• D. evpn arp-suppression

Answer: D

Explanation:
In an EVPN VXLAN distributed overlay network, excessive ARP packet replication (flooding) to all leaf switches is observed. We need the command to optimize this.
* EVPN ARP Optimization:EVPN uses its control plane (BGP) to distribute MAC and IP address reachability information. Leaf switches (VTEPs) learn these mappings. To reduce ARP flooding across the VXLAN fabric:
* ARP Suppression:VTEPs intercept ARP requests. If the VTEP already knows the MAC address for the requested IP (learned via EVPN), it can suppress the ARP request, preventing it from being flooded over VXLAN.
* Proxy ARP:VTEPs intercept ARP requests. If the VTEP knows the MAC for the requested IP, it can generate an ARP replyon behalfof the remote host.
* AOS-CX Commands:These features are configured within the EVPN context.
* evpn arp-suppression (B): Enables the ARP suppression feature for EVPN.
* evpn ip proxy-arp (C): Enables the proxy ARP feature for EVPN.
* Options A and D use standard interface/VLAN level arp-suppression or proxy-arp commands, which are not specific to optimizing flooding within the EVPN VXLAN fabric itself.
* Conclusion:To optimize by reducing the replication/flooding of ARP packets across the EVPN VXLAN overlay, enabling evpn arp-suppression (Option B) is the direct command. This leverages the EVPN control plane knowledge to stop unnecessary ARP flooding.
References:AOS-CX EVPN Configuration Guide (ARP Suppression, Proxy ARP features). This relates to
"Switching" (19%) and "Routing" (16%) objectives in the context of overlays.

NEW QUESTION # 37
Which tables arc synchronized between a pair ofCX 8325 switches in a VSX cluster? (Select two.)

• A. BGP Neighbors
• B. Link Layer Discovery Protocol (LLDP)
• C. Spanning-TreeProtocol (STP)
• D. IP Routing
• E. MAC address

Answer: D,E

Explanation:
The question asks which tables are synchronized between a pair of CX 8325 switches in a Virtual Switching Extension (VSX) cluster. VSX is a high-availability solution that synchronizes specific tables to ensure consistent operation across both switches.
* Analysis of Options:
* A. BGP Neighbors:BGP neighbor tables are not synchronized in VSX; each switch maintains its own BGP sessions.
* B. MAC address:Correct. VSX synchronizes the MAC address table to ensure consistent Layer
2 forwarding across both switches.
* C. Spanning-Tree Protocol (STP):STP states are not synchronized; each switch runs its own STP instance, though they coordinate to avoid loops.
* D. IP Routing:Correct. VSX synchronizes the IP routing table to ensure consistent Layer 3 forwarding.
* E. Link Layer Discovery Protocol (LLDP):LLDP information is not synchronized; each switch maintains its own neighbor information.
* Why B and D are Correct:In a VSX cluster, the MAC address table and IP routing table are synchronized to ensure seamless Layer 2 and Layer 3 operations. This synchronization allowsboth switches to share a common view of the network, enabling features like active-active forwarding and hitless failover. The vsx-sync feature in AOS-CX ensures these tables are kept consistent across the VSX pair.
* Relevance to Certification Objectives:
* Network Resiliency and Virtualization (8%):Involves designing and troubleshooting VSX for resiliency and redundancy.
* Switching (19%):Includes implementing and troubleshooting Layer 2 technologies like MAC address tables.
* Routing (16%):Covers IP routing table synchronization in VSX environments.
References:
HPE Aruba Networking AOS-CX Configuration Guide: VSX Configuration, detailing table synchronization.
HPE7-A06Study Guide: Covers VSX architecture and synchronization mechanisms.
HPE Aruba Networking Technical Documentation: VSX Overview, explaining MAC and routing table synchronization.
VSX (Virtual Switching Extension) synchronizes state information between the two switches in a cluster to enable active-active forwarding and provide a single logical view to downstream devices.
Analysis of Options:
A: BGP Neighbors: BGP sessions are typically established independently by each VSX member. While configurations can be synced, the dynamic state/neighbor table itself is not a core VSX synchronization item.
B: MAC address: The MAC address table is synchronized between VSX members. This is crucial for Layer 2 forwarding consistency and allowing either switch to forward traffic destined for a known MAC address learned via the VSX pair.
C: Spanning-Tree Protocol (STP): STP runs independently on each physical switch. VSX uses technologies like MC-LAG to provide loop-free active-active paths downstream, reducing reliance on STP blocking, but the STP state itself isn't synchronized via the ISL.
D: IP Routing: While the full IP routing table (RIB) is built independently on each switch via routing protocols, VSX Active Gateway synchronizes necessary Layer 3 information (like virtual gateway IP and MAC, and potentially ARP entries) to ensure consistent first-hop routing and failover. Some sources might broadly categorize ARP synchronization under L3/IP routing context in VSX. Given that the ARP table (essential for L3 forwarding consistency) is synchronized, and it's not listed separately, "IP Routing" might encompass this synchronization aspect.
E: Link Layer Discovery Protocol (LLDP): LLDP information relates to physically connected neighbors of each switch and is not synchronized across the VSX ISL.
Conclusion: The MAC address table (B) is definitively synchronized. The ARP table is also synchronized, which is fundamental for Layer 3 forwarding consistency provided by Active Gateway. As ARP is not explicitly listed, and "IP Routing" (D) is, D is the most likely second answer intended to cover the necessary L3 state synchronization (primarily ARP and Active Gateway state) performed by VSX.
References: AOS-CX VSX Guide (specifically sections on State Synchronization, ISL, Active Gateway), VSX Fundamentals documentation. This relates to "Network Resiliency and virtualization" (8%) and
"Switching" (19%) objectives.

NEW QUESTION # 38
You arc about lo deploy a gateway that is on factory default. ZTP cannot be used for different reasons, but you are searching forvalid alternatives. What are two valid alternatives for ZTP? (Select two.)

• A. Use OTP by connecting to port 0/0/0. and use a Web browser to complete provisioning.
• B. Use OTP by connecting to port 0/0/1 with a static IP. and use a Web browser to complete provisioning.
• C. UseOTP by connecting to port 0/0/1. and use a Web browser to completeprovisioning.
• D. Use OTP by connecting to the console port, and use terminal software to complete provisioning. "Full- Setup" should be used.
• E. Use OTP by connecting lo the console port, and use terminal software to complete provisioning. *Static- Activate" should be used.

Answer: C,D

Explanation:
The question asks for valid alternatives to Zero Touch Provisioning (ZTP) for initially configuring a factory default Aruba gateway when ZTP cannot be used.
* Aruba Gateway Initial Provisioning Methods:
* ZTP:Automated provisioning using Activate/Central.
* One-Touch Provisioning (OTP) / Manual Setup:Involves direct connection for initial configuration.
* Web UI:Connecting a laptop to a specific management or designated setup port (often GE0
/0/1 on many gateway models) allows access to a web-based setup wizard.
* Console Port:Connecting via the serial console port allows CLI access, which includes guided setup scripts or manual configuration.
* Analysis of Options:
* A: Port 0/0/0 is typically the OOBM port, not the standard OTP web UI port.
* B: Port 0/0/1 is commonly used for OTP via Web browser on many Aruba gateway models.
* C: Using the console port with terminal software for initial setup (potentially using a "Full-Setup" wizard or script) is a standard manual method.
* D: "Static-Activate" refers to manual registration with the Activate service, not a console setup mode.
* E: Requires setting a static IP, adding complexity beyond the basic OTP connection method described in B.
* Conclusion:Using the designated OTP Ethernet port (commonly GE0/0/1) with a web browser (Option B) and using the console port with terminal software (Option C) are the standard, valid alternatives to ZTP for initial gateway setup.
References:Aruba Gateway Installation and Quick Start Guides, AOS-10 Fundamentals Guide (Provisioning sections). This relates to "Connectivity" (9%) and "Troubleshooting" (10%) objectives.

NEW QUESTION # 39
Match the BGP connection states to the conditions that could have caused that state.

Answer:

Explanation:

Explanation:
The last keepalive is less than 3 times the negotiated holddown timer. -->established The router has not received a response. The neighbor might be unreachable. -->active The router is waiting for an initial response from the neighbor. -->connect The router starts listening for a connection. -->idle This question requires matching specific BGP connection states from the BGP Finite State Machine (FSM) to descriptions of the router's activity or condition in those states.
* Idle:This is the starting state. The BGP process is administratively up but is not actively trying to connect. It refuses all incoming BGP connection attempts but listens for a start event (like configuration or operator initiation) or potentially listens for incoming connections if configured for passive peering.
* Matches:"The router starts listening for a connection." (This describes the passive aspect of the Idle state before active attempts begin).
* Connect:In this state, BGP is actively trying to establish a TCP connection with the peer. It has initiated the TCP three-way handshake and is waiting for it to complete, or it is waiting for a remote peer to initiate the TCP connection.
* Matches:"The router is waiting for an initial response from the neighbor." (Specifically, waiting for the TCP handshake to complete).
* Active:If the TCP connection attempt in the Connect state fails (e.g., timeout), the router transitions to the Active state. In this state, it will periodically retry establishing the TCP connection while also listening for an incoming connection from the peer. This state indicates repeated failures to establish TCP connectivity.
* Matches:"The router has not received a response. The neighbor might be unreachable." (This reflects the condition in the Active state where connection attempts fail, suggesting the neighbor is unreachable at the TCP level).
* Established:This is the final, operational state where the TCP connection is up, BGP session parameters have been successfully negotiated via OPEN messages, and KEEPALIVE messages are being exchanged. Routing information (UPDATEs) can be exchanged. The condition described implies the session is healthy and timers are being maintained.
* Matches:"The last keepalive is less than 3 times the negotiated holddown timer." (While phrased slightly unusually, this indicates the holddown timer hasnotexpired because keepalives are being received within the expected window (Holddown Timer = ~3 * Keepalive Interval). This confirms the session is alive, which is true in the Established state).
References:RFC 4271 (BGP4 Specification - Section 8, Finite State Machine), BGP configuration and troubleshooting guides for AOS-CX. This relates to the "Routing" (16%) and "Troubleshooting" (10%) objectives.

NEW QUESTION # 40
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?

• A. tocreate a WMM la DSCP mapping on the WLAN side
• B. to trust at DSCP-marked packetsin the QoS interior ports
• C. to create a WMM to DSCP mapping on the LAN Edge
• D. to create a custom DSCP mapping as WLAN DSCP values are different

Answer: B

NEW QUESTION # 41
A senior engineer from the network operations team has reported an intermittent problem where some PoE- powered devices are randomly losing power. During your investigation, you found that port 1 of the Acc-1 switch is currently presenting the behavior shown in the CLI output for the Acc-1.

What is a probablecausa lot poor 1/1/1 is denying PoE?

• A. PoE port priority sot to low
• B. This switch does no! support PoE class 4.
• C. PoE was manually disabled for port 1/1/1.
• D. switch PoE powerbudget exceeded

Answer: D

Explanation:
The question involves intermittent PoE-powered device power loss on port 1/1/1 of an AOS-CX switch (Acc-
1), with CLI output (not provided) indicating a PoE issue. The task is to identify a probable cause.
* Analysis of Options:
* Option A:Incorrect. AOS-CX switches typically support PoE Class 4 (802.3at, 30W), sufficient for most devices.
* Option B:Correct. If the switch's PoE power budget is exceeded, it may deny power to port 1/1
/1, causing intermittent device failures.
* Option C:Incorrect. Low PoE port priority may deprioritize the port but is less likely to cause complete power loss compared to budget issues.
* Option D:Incorrect. Manual disabling of PoE would cause consistent power loss, not intermittent issues.
* Why Option B is Correct:AOS-CX switches have a finite PoE power budget (e.g., 370W or 740W, depending on the model and power supply). If the total power demand from connected devices exceeds this budget, the switch denies power to some ports, often intermittently as devices cycle or negotiate power. For port 1/1/1, this could manifest as random power loss for the connected device. The CLI output likely shows a "power denied" status (e.g., via show power-over-ethernet brief). Checking the PoE budget (show power-over-ethernet) and upgrading power supplies or prioritizing critical ports resolves the issue, aligning with HPE Aruba Networking's PoE troubleshooting guidelines.
* Relevance to Certification Objectives:
* Connectivity (9%):Troubleshooting PoE deployment issues.
* Troubleshooting (10%):Diagnosing power-related issues in campus networks.
* Switching (19%):Implementing PoE configurations for Layer 2 devices.
References:
HPE Aruba Networking AOS-CX Configuration Guide: PoE Configuration and Troubleshooting.
HPE7-A06Study Guide: Covers PoE management and diagnostics.
HPE Aruba Networking Technical Documentation: PoE Budget Troubleshooting.

NEW QUESTION # 42
Aplying the command "ip Igmp snooping blocked VLAN 6. 6* on a port ...

• A. won't allow multicast on that port in VLAN 5 and 6 and disables the port.
• B. won't allow multicast traffic between VLAN 5 and 6.
• C. won't prune multicast on that port on VLAN 5 and 6
• D. won't accept multicast Igmp joins on that port or VLAN 5 and 6.

Answer: D

Explanation:
The question asks for the effect of applying the command ip igmp snooping blocked vlan 5,6 on a switch port.
* ip igmp snooping blocked vlan <vlan-list>:This interface configuration command instructs the IGMP snooping process on the switch to block (ignore/drop) any inbound IGMP control packets (specifically Membership Reports, i.e., "joins", and Leave messages) received on this port for the specified VLANs (5 and 6 in this case).
* Effect:By blocking IGMP join messages from hosts connected to this port, the switch will not learn about any multicast group memberships requested by those hosts in VLANs 5 and 6. Consequently, the switch will not forward multicast traffic for those groups out of this port for those VLANs (unless the port is designated as a multicast router port). It effectively prevents hosts on this port from receiving multicast streams in the specified VLANs via standard IGMP mechanisms.
* Analysis of Options:
* A: Itresultsin traffic effectively being pruned because memberships aren't learned, but the command itself blocks the IGMPcontrolpackets (joins).
* B: Correct. It stops the switch from accepting IGMP join messages on this port for VLANs 5 and
6.
* C: Incorrect. It doesn't control inter-VLAN traffic.
* D: Incorrect. It doesn't disable the entire port.
* Conclusion:The command specifically blocks the reception and processing of IGMP join messages on the configured port for the listed VLANs.
References:AOS-CX Multicast Guide (IGMP Snooping configuration commands). This relates to the
"Switching" (19%) objective.

NEW QUESTION # 43
Exhibit.

A conference venue has a requirement to secure independent network users from each other in their network.
The following configurations are created on Edge-1:

• A. change the VLAN 152 type. primary-vlan 152
• B. change the VLAN 152 private-vlan community
• C. change the VLAN 151 primary-vlan 151
• D. change the VLAN 151 private-vlan community

Answer: D

Explanation:
The requirement is to secure independent network users from each other in a conference venue using Edge-1.
This scenario typically calls for Private VLANs,specifically using the 'isolated' type to prevent communication between hosts within the same secondary VLAN.
* Analysis of Options:
* Private VLANs consist of a primary VLAN and one or more secondary VLANs (isolated or community). Isolated ports cannot communicate with other isolated ports in the same VLAN; they can only communicate with promiscuous ports (usually the router uplink). Community ports can communicate with each other and promiscuous ports.
* Option A: Configures VLAN 152 as private-vlan community.
* Option B: Configures VLAN 151 as private-vlan community.
* Option C: Defines VLAN 152 as a primary-vlan associated with itself, which isn't standard syntax
/logic.
* Option D: Defines VLAN 151 as a primary-vlan associated with itself.
* The goal isisolation. None of the options directly configure an isolated VLAN. Options A and B configure community VLANs, which allow communication between users within that VLAN, contradicting the requirement. Options C and D attempt to define primary VLANs in a potentially incorrect way.
* Caveat:There seems to be an issue with the provided options. Standard configuration to make VLAN 151 isolated would involve defining a primary VLAN (e.g., vlan 152 private-vlan primary) and then defining VLAN 151 as isolated (vlan 151 private-vlan isolated). Since none of the options correctly configure anisolatedVLAN, and the requirement is isolation, the question or options are likely flawed. However, if forced to interpret intent, questions sometimes test understanding of thetypesof private VLANs. Changing a VLANtocommunity type (Option B for VLAN 151) is a distinct action, even if it doesn't meet the statedisolationgoal. Without correct options for 'isolated', selecting the 'best' flawed option is difficult. Assuming the question intends to configure VLAN 151 assome typeof private secondary VLAN, Option B modifies VLAN 151's private VLAN characteristic.
* Conclusion:Based on the requirement for isolation, none of the provided options are correct. However, if assuming a potential error in the question or options and needing to select the closest modification related to private VLAN types for VLAN 151, Option B is chosen tentatively, despite configuring
'community' instead of the required 'isolated'.
References:AOS-CX Security Guide (Private VLAN configuration), Private VLAN concepts (Primary, Isolated, Community). This relates to the "Switching" (19%) and "Security" (10%) objectives.

NEW QUESTION # 44
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