Pass the HP Aruba Certified Switching Associate (ACSA) V1 HPE6-A86 Questions and answers with Dumpstech

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 A. 10G-DAC. The limiting device in this connection is the CX 6200. HPE Aruba Networking CX 6200 models use built-in high-speed uplinks, and the CX 6200 product listings identify models with 4SFP+ uplinks. SFP+ uplinks support 10G, not 25G, 50G, or 100G single-port connectivity. HPE Aruba Networking transceiver guidance also notes that CX 6200 switches support split-side SFP connections only in available 10G-capable SFP ports, and that 50G transceivers can only be used in ports capable of 50G speeds, such as SFP56-capable ports. Therefore, even though the CX 8100 supports higher-speed connectivity options, the shared validated single-port option between the two switch families is 10G over DAC for a short 3-meter connection. Option B is incorrect because the CX 6200 does not have 100G ports. Option C is incorrect because 25G-LR is not the best validated 3-meter option and exceeds the CX 6200 SFP+ port capability. Option D is incorrect because 50G-DAC requires 50G-capable ports.

The correct answer is C. Lowest administrative distance. When a switch learns multiple possible routes to the same destination, it must select the preferred or best route to install and use for forwarding. HPE Aruba Networking documentation explains that administrative distance is one of the main criteria used to determine the preferred route when multiple paths exist to the same destination. The route with the lower administrative distance takes precedence. This is why connected routes, static routes, and dynamically learned routes can be preferred differently depending on their administrative distance values. Option A is incorrect because a default route is used only when no more specific route exists. Option B is incorrect because a static route is not automatically selected merely because it is static; it is preferred only if its administrative distance and route specificity make it the best candidate. Option D is incorrect because the highest administrative distance is less preferred, not more preferred.

The correct answers are B and E. On HPE Aruba Networking AOS-CX switches, configuration changes are made to the running configuration. To ensure those changes persist after a reboot, the running configuration must be saved to the startup configuration. HPE Aruba Networking documentation states that write memory saves the running configuration to the startup configuration and is an alias of copy running-config startup-config. The copy running-config startup-config command copies the current running configuration into the startup configuration, overwriting the existing startup configuration if one is already present. Option A, commit confirm, is not the AOS-CX command used to save the current running configuration for reboot persistence. Option C, save force, is not the correct AOS-CX command for this task. Option D is the reverse operation; copy startup-config running-config would copy the saved startup configuration into the active running configuration rather than saving current changes for the next reboot. Therefore, the two valid commands are write memory and copy running-config startup-config.

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.

A new firewall rule has been added = Cause

My email is not working = Symptom

My device says “No Internet” = Symptom

One of the DNS servers is offline = Cause

The switch firmware was upgraded = Cause

Websites are not loading = Symptom

The correct classification separates observed user impact from likely reasons for that impact. A symptom is what users or administrators observe, such as “email is not working,” “No Internet,” or “websites are not loading.” These describe the effect of the problem but do not identify why it is happening. A cause is a condition, change, or failure that could explain the symptom. A newly added firewall rule could block traffic, an offline DNS server could prevent name resolution, and a firmware upgrade could introduce a configuration, compatibility, or service-change issue. HPE Aruba Networking troubleshooting documentation commonly separates symptoms from causes and corrective actions; for example, AOS-CX troubleshooting sections describe a visible symptom, then identify the cause and action needed to resolve it. This method helps avoid guessing and keeps troubleshooting structured: first collect symptoms, then identify recent changes and infrastructure failures that could be possible causes. In this question, the user-facing service failures are symptoms, while the firewall, DNS, and firmware items are possible causes.

The correct matches are based on how SNMP monitoring works in an HPE Aruba Networking environment. A managed device is the network device being monitored, such as a switch, router, firewall, controller, or access point. HPE Aruba Networking documentation describes SNMP as a protocol used by network management systems to monitor network-attached devices. The SNMP agent is the software function on the managed device that collects local device information and communicates status, statistics, and configuration-related information to the management system. The SNMP manager is the network management system that queries devices, receives information, and may modify supported device parameters. The Management Information Base, or MIB, is the structured database of object identifiers used to represent device status, counters, statistics, and configuration information. HPE Aruba Networking AOS-CX monitoring documentation points administrators to the SNMP/MIB Guide for configuring SNMP so a device can be monitored from a network management system.

The correct answer is C. auditors. HPE Aruba Networking AOS-CX documentation for the 6200, 6300, and 6400 switch series identifies three built-in user groups: administrators, operators, and auditors. These built-in groups have fixed privileges. The administrators group has full privileges, including full CLI access, firmware upgrades, configuration viewing, configuration changes, and user account management. The operators group has no switch configuration privileges and is mainly limited to basic display-only access and viewing nonsensitive configuration information. The auditors group is restricted to audit-related functions. Since the question asks which user group exists by default on a CX 6400 Series switch, “auditors” is the only listed option that matches the HPE Aruba Networking AOS-CX built-in groups. The other options—read-only, restricted, and reporting—are not listed as default built-in AOS-CX user groups for the CX 6400 platform. This makes option C the verified answer.

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

The correct answer is D. Allowed VLANs between access switches. The diagram shows Server-1 connected to Access-2 in VLAN 20 and PC-1 connected to Access-1. The inter-switch link between Access-1 and Access-2 is shown as a trunk carrying VLANs 1, 10, and 20. If users on Access-1 cannot reach Server-1 in VLAN 20 after a recent change, while devices directly connected to Access-2 are not affected, the most likely issue is that VLAN 20 is not being correctly carried across the trunk between the access switches. HPE Aruba Networking AOS-CX documentation states that vlan trunk allowed defines which VLAN traffic is allowed across a trunk interface. It also explains that allowed VLANs are the VLANs that can be transported by the trunk; if a required VLAN is missing from the allowed list, that VLAN’s traffic will not traverse the trunk. Option A is less likely because devices directly connected to Access-2 can access Server-1, indicating Server-1’s local VLAN placement is probably correct. Option B is unlikely because a down trunk would affect more VLANs than just access to VLAN 20. Option C is not supported by the symptom pattern.