HPE6-A85 NEW BRAINDUMPS - TESTKING HPE6-A85 LEARNING MATERIALS

HPE6-A85 New Braindumps - Testking HPE6-A85 Learning Materials

HPE6-A85 New Braindumps - Testking HPE6-A85 Learning Materials

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Tags: HPE6-A85 New Braindumps, Testking HPE6-A85 Learning Materials, HPE6-A85 Test Lab Questions, HPE6-A85 Dumps, HPE6-A85 Valid Test Online

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HP HPE6-A85 certification is ideal for IT professionals who want to advance their careers in the field of wireless networking. Aruba Campus Access Associate Exam certification demonstrates that the candidate has the knowledge and skills to design and deploy Aruba wireless networks in campus environments. Aruba Campus Access Associate Exam certification is also a great way for IT professionals to validate their skills and knowledge to potential employers, as well as to gain recognition within the industry.

HP HPE6-A85 (Aruba Campus Access Associate) Exam is a certification test designed for IT professionals who specialize in wireless and wired network infrastructure. HPE6-A85 Exam focuses on the fundamentals of wireless networking and the basic concepts of Aruba network access control. HPE6-A85 exam covers a wide range of topics including network fundamentals, wireless LAN fundamentals, basic access control, and authentication and encryption techniques. HPE6-A85 exam also tests the ability of candidates to configure and deploy Aruba WLAN solutions for small to medium-sized businesses.

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HP HPE6-A85 (Aruba Campus Access Associate) Certification Exam is designed for individuals who have a fundamental understanding of wireless networking technologies and solutions. Aruba Campus Access Associate Exam certification exam is ideal for network administrators, engineers, and technicians who are responsible for designing, implementing, and managing Aruba wireless networks. HPE6-A85 Exam covers a wide range of topics, including network fundamentals, wireless LAN design and deployment, ArubaOS features and functionality, and troubleshooting wireless networks.

HP Aruba Campus Access Associate Exam Sample Questions (Q20-Q25):

NEW QUESTION # 20
An AP signal strength of .0000001 milliwatts equals how many dBm?

  • A. -70 dBm
  • B. -60 dBm
  • C. -80 dBm
  • D. -90 dBm

Answer: C

Explanation:
An AP signal strength of .0000001 milliwatts is equivalent to -80 dBm. The dBm scale is logarithmic, with every 10 dBm representing a tenfold increase or decrease in power. A signal strength of 1 milliwatt (mW) is 0 dBm, so a signal strength of .0000001 mW is 80 decibels less than 1 mW, which is -80 dBm.


NEW QUESTION # 21
Which authentication does Aruba's Captive Portal use?

  • A. Layer 3 authentication
  • B. 802.1x authentication
  • C. Layer 2 authentication
  • D. MAC authentication

Answer: A

Explanation:
Aruba's Captive Portal uses Layer 3 authentication, which means that it intercepts the client's HTTP requests and redirects them to a web page where the client can enter their credentials. The credentials are then verified by a RADIUS server or a local database before granting network access. References:https://www.
arubanetworks.com/techdocs/Instant_86_WebHelp/Content/instant-ug/captive-portal/captive-portal-auth.htm Aruba's Captive Portal primarily uses Layer 3 authentication, which operates at the network layer. When a user connects to a network with a Captive Portal, they are redirected to a web page for authentication. This process involves the user entering credentials or accepting terms and conditions through a web interface before gaining full access to the network. The Captive Portal intercepts the user's web traffic at Layer 3, requiring them to authenticate before proceeding, which is why it's considered a form of Layer 3 authentication.


NEW QUESTION # 22
Based on the given topology, what is the requirement on an Aruba switch to enable LLDP messages to be received by Switch 1 port 1/1/24. when Router 1 is enabled with LLDP?

  • A. int 1/1/24, lldp receive
  • B. global configuration lldp enable
  • C. int 1/1/24, no cdp
  • D. LLDP is enabled by default

Answer: D


NEW QUESTION # 23
You are configuring a network with a stacked pair of 6300M switches used for distribution and layer 3 services. You create a new VLAN for users that will be used on multiple access stacks of CX6200 switches connected downstream of the distribution stack You will be creating multiple VLANs/subnets similar to this will be utilized in multiple access stacks What is the correct way to configure the routable interface for the subnet to be associated with this VLAN?

  • A. Create a physically routed interface in the subnet on the 6300M stack for each downstream switch.
  • B. Create an SVl in the subnet on each downstream switch
  • C. Create an SVl in the subnet on the 6300M stack, and assign the management address of each downstream switch stack to a different IP address in the same subnet
  • D. Create an SVl in the subnet on the 6300M stack.

Answer: D

Explanation:
The correct way to configure the routable interface for the subnet to be associated with this VLAN is to create an SVI Switched Virtual Interface (SVI) Switched Virtual Interface (SVI) is a virtual interface on a switch that represents a VLAN and provides Layer 3 routing functions for that VLAN . SVIs are used to enable inter- VLAN routing , provide gateway addresses for hosts in VLANs , apply ACLs or QoS policies to VLANs , etc
. SVIs have some advantages over physical routed interfaces such as saving interface ports , reducing cable costs , simplifying network design , etc . SVIs are usually numbered according to their VLAN IDs (e.g., vlan
10) and assigned IP addresses within the subnet of their VLANs . SVIs can be created and configured by using commandssuch as interface vlan , ip address , no shutdown , etc . SVIs can be verified by using commands such as show ip interface brief , show vlan , show ip route , etc . in the subnet on the 6300M stack.
An SVI is a virtual interface on a switch that represents a VLAN and provides Layer 3 routing functions for that VLAN. Creating an SVI in the subnet on the 6300M stack allows the switch to act as a gateway for the users in that VLAN and enable inter-VLAN routing between different subnets. Creating an SVI in the subnet on the 6300M stack also simplifies network design and management by reducing the number of physical interfaces and cables required for routing.
The other options are not correct ways to configure the routable interface for the subnet to be associated with this VLAN because:
* Create a physically routed interface in the subnet on the 6300M stack for each downstream switch: This option is incorrect because creating a physically routed interface in the subnet on the 6300M stack for each downstream switch would require using one physical port and cable per downstream switch, which would consume interface resources and increase cable costs. Creating a physically routed interface in the subnet on the 6300M stack for each downstream switch would also complicate network design and management by requiring separate routing configurations and policies for each interface.
* Create an SVl in the subnet on each downstream switch: This option is incorrect because creating an SVI in the subnet on each downstream switch would not enable inter-VLAN routing between different subnets, as each downstream switch would act as a gateway for its own VLAN only. Creating an SVI in the subnet on each downstream switch would also create duplicate IP addresses in the same subnet, which would cause IP conflicts and routing errors.
* Create an SVl in the subnet on the 6300M stack, and assign the management address of each downstream switch stack to a different IP address in the same subnet: This option is incorrect because creating an SVI in the subnet on the 6300M stack, and assigning the management address of each downstream switch stack to a different IP address in the same subnet would not enable inter-VLAN routing between different subnets, as each downstream switch would still act as a gateway for its own VLAN only. Creating an SVI in the subnet on the 6300M stack, and assigning the management address of each downstream switch stack to a different IP address in the same subnet would also create unnecessary IP addresses in the same subnet, which would waste IP space and complicate network management.
References: https://www.arubanetworks.com/techdocs/AOS-CX/10.05/HTML/5200-7295/index.html
https://www.arubanetworks.com/techdocs/AOS-CX/10.05/HTML/5200-7295/cx-noscg/l3-routing/l3-routing- overview.htm https://www.arubanetworks.com/techdocs/AOS-CX/10.05/HTML/5200-7295/cx-noscg/l3- routing/l3-routing-config.htm


NEW QUESTION # 24
Which flew in a Layer 3 IPv4 packet header is used to mitigate Layer 3 route loops?

  • A. Checksum
  • B. Time To Live
  • C. Destination IP
  • D. Protocol

Answer: B

Explanation:
The field in a Layer 3 IPv4 packet header that is used to mitigate Layer 3 route loops is Time To Live (TTL). TTL is an 8-bit field that indicates the maximum number of hops that a packet can traverse before being discarded. TTL is set by the source device and decremented by one by each router that forwards the packet. If TTL reaches zero, the packet is dropped and an ICMP Internet Control Message Protocol (ICMP) Internet Control Message Protocol (ICMP) is a network protocol that provides error reporting and diagnostic functions for IP networks. ICMP is used to send messages such as echo requests and replies (ping), destination unreachable, time exceeded, parameter problem, source quench, redirect, etc. ICMP messages are encapsulated in IP datagrams and have a specific format that contains fields such as type, code, checksum, identifier, sequence number, data, etc. ICMP messages can be verified by using commands such as ping , traceroute , debug ip icmp , etc . message is sent back to the source device. TTL is used to mitigate Layer 3 route loops because it prevents packets from circulating indefinitely in a looped network topology. TTL also helps to conserve network resources and avoid congestion caused by looped packets.
The other options are not fields in a Layer 3 IPv4 packet header because:
Checksum: Checksum is a 16-bit field that is used to verify the integrity of the IP header. Checksum is calculated by the source device and verified by the destination device based on the values of all fields in the IP header. Checksum does not mitigate Layer 3 route loops because it does not limit the number of hops that a packet can traverse.
Protocol: Protocol is an 8-bit field that indicates the type of payload carried by the IP datagram. Protocol identifies the upper-layer protocol that uses IP for data transmission, such as TCP Transmission Control Protocol (TCP) Transmission Control Protocol (TCP) is a connection-oriented transport layer protocol that provides reliable, ordered, and error-checked delivery of data between applications on different devices . TCP uses a three-way handshake to establish a connection between two endpoints , and uses sequence numbers , acknowledgments , and windowing to ensure data delivery and flow control . TCP also uses mechanisms such as retransmission , congestion avoidance , and fast recovery to handle packet loss and congestion . TCP segments data into smaller units called segments , which are encapsulated in IP datagrams and have a specific format that contains fields such as source port , destination port , sequence number , acknowledgment number , header length , flags , window size , checksum , urgent pointer , options , data , etc . TCP segments can be verified by using commands such as telnet , ftp , ssh , debug ip tcp transactions , etc . , UDP User Datagram Protocol (UDP) User Datagram Protocol (UDP) is a connectionless transport layer protocol that provides


NEW QUESTION # 25
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