Q2: Based on the information in the graphic shown, design a network addressingscheme that will supply the minimum number of subnets, and allow enough extrasubnets and hosts for 70% growth in all areas without using VLSM. Circle eachsubnet on the graphic and answer the questions below.Ft. Worth1000 HostsRouterS 0/0/1FOOIP address 112.0.0.0S 0/0/0 S 0/0/1RouterDS 0/0/0F 0/0RouterS 0/0/1RotherAddress classCustom subnet maskMinimum number of subnets neededExtra subnets required for 70% growth +(Round up to the next whole number)Total number of subnets neededNumber of host addresses in the largest subnet groupNumber of addresses needed for 70% growth in the largestsubnet +(Round up to the next whole number)Total number of address needed for the largest subnet =Start with the first subnet and arrange yourF 0/1sub-networks from the largest group to the smallest:Subnet 1: IP address range for DallasSubnet 2: IP address range for Ft. WorthSubnet 3: IP address range for Router A to Router B serial connectionSubnet 4: IP address range for Router A to Router C serial connectionSubnet 5: IP address range for Router C to Router D serial connectionDallas1500 Hosts-----Class A255240.0.0.-----9 Subnets------9-Subnets...------15.0010502550112.0.0.1 to 112.015.254112.0.16.1 to 112.0.23.254112.0.24.1 to 112.0.24.2112.0.24.5 to 112.0.24.6T120.249 to 120.2410

Solution: - -->Given IP address:112.0.0.0 -->Address class: Class A -->Custom subnet mask:…

Q2: Based on the information in the graphic shown, design a network addressing scheme that will supply the minimum number of subnets, and allow enough extra subnets and hosts for 70% growth in all areas without using VLSM. Circle each subnet on the graphic and answer the questions below.

Q2: Based on the information in the graphic shown, design a network addressing scheme that will supply the minimum number of subnets, and allow enough extra subnets and hosts for 70% growth in all areas without using VLSM. Circle each subnet on the graphic and answer the questions below.

Comptia A+ Core 1 Exam: Guide To Computing Infrastructure (mindtap Course List)

10th Edition

ISBN:9780357108376

Author:Jean Andrews, Joy Dark, Jill West

Publisher:Jean Andrews, Joy Dark, Jill West

Chapter8: Network Infrastructure And Troubleshooting

Section: Chapter Questions

Problem 8TC

See similar textbooks

Similar questions

Design a classfull network addressing scheme that will supply the minimum number of hosts per subnet, and allow enough extra subnets and hosts for 25% growth in all areas. IP Address 172.16.0.0 FO/O S//0/1 FO/O Sales Administrative FO/1 185 Hosts 30 Hosts SO/0/0 Marketing 50 Hosts,
4 LANS are connected to a router (R1) with each LAN compares of several hosts connected to a switch. Each LAN cotains the following number of hosts (end devices and the gateway interface), • LANI à 30 Hosts • LAN2 à 15 Hosts • LAN3 à 20 Hosts • LAN4 à 3 Hosts You have received the address space 200.16.1.0/24. Use the address space to create a subnetting scheme of four subnets with equal size in a way to accommodate the number of hosts required. Consider the following points in your answer, / Explain the procedure of your subnetting scheme / Highlight the suitable prefix and the subnet mask / Highlight the number of wasted hosts in each subnet after determining the most suitable prefix / Use the table below to provide the subnet details for each LAN Subnet Address First Host address Last Host address Broadcast address 1 LANI 2 LAN2 3 LAN3 4 LAN4
• IPV6 addresses use 128 bits to represent an address which includes bits to be used for subnetting. The second half of the address (least significant 64 bits) is always used for hosts only. Therefore, there is no compromise if we subnet the network. Use the Figure below to Create five subnets using route prefix 2001:db:acad::/48 (1 Marks) Routing Prefix Subnet ID Interface ID 48 Bits 16 Bits 64 Bits
Design a classfull network addressing scheme that will supply the minimum number of hosts per subnet, and allow enough extra subnets and hosts for 25% growth in all areas. IP Address 172.16.0.0 FO/0 S/0/1 FO/O Sales Administrative Router A FO/1 SO/0/0 185 Hosts 30 Hosts Marketing 50 Hosts
Suppose within your web browser you click on a link to obtain a Web page. The IP address for the associated URL is not cached in your local host, so a DNS lookup is necessary to obtain the IP address. Suppose that three DNS servers are visited before your host receives the IP address from DNS. The first DNS server visited is the local DNS cache, with an RTT delay of RTT = 4 msecs. The second and third DNS servers contacted have RTTs of 45 and 24 msecs, respectively. Initially, let's suppose that the Web page associated with the link contains exactly one object, consisting of a small amount of HTML text. Suppose the RTT between the local host and the Web server containing the object is RTTHTTP = 9 msecs. Assuming zero transmission time for the HTML object, how much time elapses from when the client clicks on the link until the client receives the object? (Do not forget the TCP handshake(s).) 82 msecs O 91 msecs O 46 msecs O 67 msecs
Assume a client is connected to the server and has already received an HTML webpage. It reads the webpage, and it now needs to get 3 new files, File A is 5 MB file B is 1 MB and file C is 1 KB. The client requests the files in the order A B C. The link has an RTT (round trip time) of 0.5 seconds and a bandwidth of 8 Mb/s(Megabits per second) (or 1 Megabyte per second). The client can reuse the open connection if the protocol allows it to. For all parts of this problem ignore header sizes, and start the timer when the client sends How long does it take to get file C under HTTP 0? How long does it take to get file C under HTTP 1 (assume the browser does not support pipeling)? How long does it take to get file C under HTTP 2 assuming a frame size of 1 KB and no server push? What event would make HTTP 3 faster than HTTP 2 for this use case (ignore TLS)?
Suppose the network layer provides the following service. The network layer in the sourcehost accepts a segment of maximum size 1,200 bytes and a destination host address from thetransport layer. The network layer then guarantees to deliver the segment to the transport layerat the destination host. Suppose many network application processes can be running at thedestination host In your protocols, does the transport layer “have to do anything” in the core of the computer network?
An IP address can be written as a 32-bit number. For a class B network, the two most significant bits are set to 10. The 16 most signi cant bits are used as a network ID, and the 16 least signi cant bits are used as a host ID. However, the host ID cannot be all 0's or all 1's. How many hosts (i.e., host IDs) can there be on a class B network?
An IP address can be written as a 32-bit number. For a class B network, the two most significant bits are set to 10. The 16 most significant bits are used as a network ID, and the 16 least significant bits are used as a host ID. However, the host ID cannot be all 0's or all 1's. How many hosts (i.e., host IDs) can there be on a class B network?
4. The original HTTP protocol used TCP/IP as the underlying protocol. For each page, graphic, or applet, a separate TCP connection was constructed, used, and terminated. This caused several problems: one referred to as the elephant and mice problem and two aspects of connection overhead. Describe both problems. Why were separate connections used? Would UDP rather than TCP be a good alternative? What solution would you propose to these problems to improve HTTP performance?
To design a network addressing scheme that will supply the minimum number of hosts per subnet, what is the classless prefix used for "Sales"? IP Address 172.16.0.0 FO/O So/0/1 FO/O Sales Administrative 30 Hosts FO/1 185 Hosts SO/0/0 Marketing 50 Hosts/ Select one: O a. /26 b. /24 O c. /23 O d. 125 8o o o o
Suppose Alan, with a Web-based e-mail account (such as Gmail or Yahoo! Mail), sends a message to Benson, who accesses his mail from his mail server using POP3. Discuss how the message gets from Alan's host to Benson's host. Be sure to list the series of application-layer protocols that are used to move the message between the two hosts.