1
SIM UNIVERSITY
SCHOOL OF SCIENCE AND TECHNOLOGY
COMPUTER NETWORK DESIGN OF A PRIMARY
SCHOOL
STUDENT
: GOH SI YUAN (H0805960)
SUPERVISOR
: DR YANG ZHIZONG
PROJECT CODE : JUL2010/ICT/059
A project report submitted to SIM University
in partial fulfilment of the requirements for the degree of
Bachelor of Information Technology and Business
May 2011
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TABLE OF CONTENTS
Page
ABSTRACT
04
ACKNOWLEDGEMENT
05
CHAPTER ONE
INTRODUCTION
1.1
Background and Motivation
1.2
Objectives
1.3
Scope
1.4
Layout of the Project report
06
CHAPTER TWO
REQUIREMENTS
2.1
Stakeholder requirements
2.2
Solution requirements
2.3
System requirements
2.4
Infrastructure requirements
15
CHAPTER THREE
FEATURES
3.1
Network features
3.2
Servers features
3.3
Facilities features
18
CHAPTER FOUR
DESIGN
4.1
Network configuration
4.2
Network type
4.3
IP addressing scheme design
4.4
Network diagram design
CHAPTER FIVE
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3
PROJECT MANAGEMENT
5.1
Methodology
5.2
Schedule
5.3
Risk assessment
36
CHAPTER SIX
INVESTIGATIONS AND EXPERIMENTS
6.1
Comparison of physical network topologies
6.2
Comparison of logical network topologies
6.3
Hardware
6.4
Software
6.5
Evaluation
49
CHAPTER SEVEN
SIMULATION
7.1
Network simulation model
7.2
Network simulation features
7.3
Network configuration
7.4
Virtual Local Area Network
7.5
IP addressing scheme
7.6
Testing
7.7
Evaluation
68
CHAPTER EIGHT
CONCLUSIONS AND RECOMMENDATIONS
84
CHAPTER NINE
REFLECTION
REFERENCES
APPENDIX A
APPENDIX B
APPENDIX C
APPENDIX D
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4
Abstract
This project investigates the design considerations, requirements and network
features for a typical primary school's computer network with the
development of a simulated computer network. SDLC or Systems
Development Life Cycle is adopted as the methodology, enabling this project
to be developed in a structured manner.
The purpose of this project is to propose a optimized computer network
which meets the design considerations, requirements and features for a
typical primary school in Singapore. In this project, the design considerations,
requirements and features of the proposed network are investigated. A full
functional simulation of a primary school computer network was generated
and evaluation of the network are carry out.
This project exploit the approach in designing a computer network by
evaluating the network first through computer simulation before the
implementation. Compare to traditional computer network design process,
this approach enhance the traditional network design process which proof to
be advisable and more cost efficiency.
The comparison of physical and logical network topologies illustrated that
Server/Client network configuration, Star physical network topology and
Ethernet logical network topology should be employed in the project which
will provide a variety of features.
Lastly in the project, a primary school's computer network is presented in a
simulation environment to be display graphically for demonstration of results.
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Acknowledgements
Throughout the development of this capstone project, I wish to express my
thanks and utmost gratitude to those have made this project possible. Among
those whom I wish to thank is my project supervisor Dr Yang ZhiZong, for
his valuable advice and diligence attention towards this capstone project
completion. Next is my friend Mr Ho Yeo Sin for his guidance in various
aspects of the simulation in this project. I also will like to use this opportunity
to thank my family who supported and encouraged me throughout my three
and a half years of study in Unisim.
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Chapter 1 - Introduction
1.1 Background and Motivation
Many of our schools today were built over the last 20-30 years. In 1999,
Ministry of Education (MOE) initiated a major programme for rebuilding and
improving existing schools (PRIME). It aims to redevelop the schools to the
latest standard and ensure that all students have access to facilities that can
support a wide range of educational programmes. New and upgraded
facilities will include computer laboratories, media resource libraries, IT
learning resource rooms, pastoral care rooms and health and fitness rooms.
Teachers and students can also look forward to bigger classrooms and staffrooms, and more interaction areas ("prime", 2011).
In today society, computer networks are the core of modern communication.
It is a collection of computers and devices interconnected by communications
channels that facilitate communications among users and allows users to
share resources ("Computer network", 2011). A computer network would
allows the school to share and exchange data, facilitate communications,
sharing of hardware & software and information presentation.
Today, majority of the primary school are still operating without a computer
network that connect the school facilities together. But the implementation of
networking the school after the "PRIME" programme is completed will be
inevitable. At the core of the "PRIME" programme, there must be a optimized
computer network design that can support and exploit the functionality of
these new and upgraded facilities.
Traditional computer network design process encompassing topological
design, network-synthesis, and network-realization, and is aimed at ensuring
that a new computer network meets the needs of the user ("Network planning
and design", 2011) but it simply presume that the performance will meets the
ICT499 CAPSTONE PROJECT REPORT
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requirements lay down by the user and no problems would occur because
there are no means to measure the realistic performance of the network and
mechanism to identify the problems until implementation is completed. As a
result, a new computer network design approach would be employed in this
project so as to evaluate the differences with the traditional approach.
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1.2 Objectives
This project is to develop a simulation of a computer network design using
computer software to investigate design considerations and requirements for a
typical primary school in Singapore. This approach enable a full functional
simulation for a primary school computer network that meets the
requirements in accessibility, scalability and security to be generated and
evaluation of the network performance to be carry out.

To investigate the design considerations, requirements and features of
a primary school

To develop the optimized computer network design in a simulated
environment

To develop a graphical demonstration for the presentation of the
project result

To investigate the different network topologies, configurations and
technologies that may significantly affect the network design

To present an optimized computer network design for a primary
school.

To present the evaluation of network design process selected against
the traditional network design process
This project offer an alternative approach to design a computer network
which evaluate its performance first by using computer simulation before
implementing the network design in real life.
Traditional computer network design process encompassing topological
design, network-synthesis, and network-realization, and is aimed at ensuring
that a new network meets the needs of the user ("Network planning and
design", 2011) but it only able to presume that the performance will meets the
requirements lay down by the user because there are no means to measure the
realistic performance of the network until implementation is finished.
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With this project, performance of the network is evaluated first to ensure it
meets the requirements before implementation in real life. This project proof
to be worthwhile and important because

The project enables design of a computer network to be achieved with
low cost and less pressure from environmental factors.

The project makes work more effective as the consequences of the
computer simulation's actions or changes can be seen immediately.

The project enables a wide range of objectives required for the
computer network design to be accomplished in a short period of
time.

The project enables the computer network design's performance to be
evaluated through analyzing the data recorded.

The project ensures that the computer network design meets the
requirements of the user before implementation.

The project enables the computer network design to be displayed
graphically to user for demonstration of results.
Hence, the second main objective of this project is to enhance the process of
current computer network design by implementing the design in a simulated
software environment first so as to develop a computer network design that
can meets the requirements of the user more closely.
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1.3 Scope
Project Objective:

Investigate the design considerations, requirements and features
required for a typical primary school's computer network.

Develop a functional simulation of the optimized computer
network using Cisco Packet Tracer 5.3 software.

Evaluate the computer network design process employed in this
project against the traditional network design process.
Deliverables:

Planning Phase
1. Project objectives & problems
2. Project proposal

Analysis Phase
1. Feasibility studies results
2. Project interim report

Design Phase
1. Project network topology
2. Project IP addressing scheme
3. Project network diagram
4. Project physical network diagram

Implementation Phase
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1. Project computer network simulation

Evaluation Phase
1. Requirements verification results
2. Simulation testing results
3. Network performance evaluation results

Project report writing Phase
1. Project report
2. Project poster
3. Project presentation slides
Milestones:

Completion of planning phase

Submission of project proposal

Completion of analysis phase

Submission of project interim report

Completion of design phase

Completion of implementation phase

Completion of evaluation phase

Submission of project report, poster & presentation slides
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1.4 Layout of the Project report
This project report consists of nine chapters. This section of the report provide
an overview of each chapter in this project report. Each chapter is organized in
a structured manner in the report as below:
Chapter 1 - Introduction
This chapter describe the background and motivation of this project with
project objectives and problems defined. Scope of the project provide the
details on the main project objectives, deliverables in each phase of the project
and each milestone in this project. Layout of the project report is included to
give the overview of each chapter in this report.
Chapter 2 - Requirements
This chapter define the different types of requirements identified in this
project. Requirements identified are stakeholder requirements, solution
requirements,
system
requirements
and
infrastructure
requirements.
Identifying the requirements allow the verifying of requirements at the end of
the project and make available a checklist of requirements that ensure at the
end of the project the requirements are meets.
Chapter 3 - Features
This chapter define the different types of features identified in this project.
Features identified are network features, server features and facilities features.
This chapter investigate the different features and the advantages and
disadvantages of having it in the project.
Chapter 4 - Design
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This chapter investigate different network topologies available in the
designing of the project computer network. It describe the developing of the IP
addressing scheme and designing of the IP addressing scheme applied in this
project. This chapter further explain the designing of network diagram in this
project and the project network design diagram are illustrated.
Chapter 5 - Project management
This chapter define the methodology, SDLC or Systems Development Life
Cycle that is applied in this project. Project's schedule developed using
Microsoft Office Project which includes the project activity list and project
gnatt chart are illustrated to offer an overview of the project schedule planned.
A project risk assessment is been done so as to identify the problems that may
occur and establish a risk response to deal with the problems.
Chapter 6 - Investigation and Experiments
This chapter consists of the comparison results of the physical and logical
network topologies which define the advantages and disadvantages of each
physical and logical topologies and its suitability in this project.The
investigation results of the equipments needed for the implementation and the
software suitable for the simulation of the computer network will be included
in this chapter. And an evaluation of the investigation and experiments taken
in this project.
Chapter 7 - Simulation
This chapter discuss on the simulation model developed for the computer
network and the features available in this simulation model. It will also show
the process involved and network configuration of this simulated computer
network. Detail of the virtual local area network(Vlan) and IP addressing
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scheme in this model will be illustrated. This chapter will also present the
detail on the testing results of the simulation model and the evaluation results.
Chapter 8 - Conclusions and recommendations
This
chapter
will
conclude
the
project
results
obtained
and
the
recommendation for the improvement and enhancement of a typical primary
school computer network.
Chapter 9 - Reflection
Chapter 9 will review the entire period involve in the development of this
capstone project so as to provide an account based on the report, project's
schedule, meeting logs and the discussion with my project supervisor, and how
the project can be done better and the development of the skills needed in this
project.
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Chapter 2 - Requirements
2.1 Stakeholder requirements
Stakeholder requirements are statements of the needs of a particular
stakeholder or class of stakeholders. They describe the needs that a given
stakeholder has and how that stakeholder will interact with a solution (IIL
2011, Pg6-11). The stakeholder register, Table 2.1 is used to identify those
people and organizations impacted by this project, stakeholder register are
illustrated under Appendix A in this report.
The
stakeholder
requirements
documentation,
Table
2.2
includes
requirements ID, requirement description, and stakeholders associated with
requirements. This documentation assists in making trade-off decisions
among requirements at the same time enable the verification of requirements
at the evaluation phase, and in managing stakeholder expectations (IIL 2011,
Pg6-11). Stakeholder Requirements Documentation are illustrated under
Appendix A in this report.
2.2 Solution requirements
Solution requirements describe the characteristics of a solution that meet
stakeholder requirements. They are divided into sub-categories of functional
and non-functional requirements.
Functional requirements describe the behavior and information that the
solution will manage. They describe capabilities the system will be able to
perform in terms of behaviors or operations (IIL 2011, Pg6-11). The functional
requirements documentation, Table 2.3 includes requirements ID and the
requirement description. Functional Requirements Documentation
illustrated under Appendix A in this report
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Non-functional requirements capture conditions that do not directly relate to
the behavior or functionality of the solution, but rather describe environmental
conditions under which the solution must remain effective or qualities that the
system have (IIL 2011, Pg6-11). These can include requirements related to
capacity, speed, security, availability and reliability. The non-functional
requirements documentation, Table 2.4 includes requirements ID and the
requirement description. Non-Functional Requirements Documentation are
illustrated under Appendix A in this report
2.3 System requirements
System requirements describe the requirements about the hardware and
software required to run or support the solution (IIL 2011, Pg6-11). These can
include requirements related to conversion, maintenance & support,
reusability, archiving/retention and processing. The system requirements
documentation, Table 2.5 includes requirements ID and the requirement
description. System Requirements Documentation are illustrated under
Appendix A in this report.
2.4 Infrastructure requirements
Infrastructure requirements specify any requirements that ensure the new
solution will connect properly to external components (IIL 2011, Pg6-11). The
infrastructure requirements documentation, Table 2.6 includes requirements
ID
and
the
requirement
description.
Infrastructure
Requirements
Documentation are illustrated under Appendix A in this report.
Before the beginning of designing the computer network design, one should
need is a complete assessment of expected functionality. Identifying the tasks
that needed to perform more efficient through the utilize of computer network,
the applications needed to support and all different types of requirements.
Only after identifying all the stakeholders and the requirements ensure that the
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computer network that is design would fit the needs and requirements of the
users.
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Chapter 3 - Features
3.1 Network features

Speed - Networks provide a very rapid method for sharing and
transferring files. Without a network, files are shared by copying them to
portable media, then carrying or sending from one computer to another.
This method of transferring files in this manner is very time-consuming.

Cost - The network version of most software programs are available at
considerable savings when compared to buying individually licensed
copies. Besides monetary savings, sharing a program on a network allows
for easier upgrading of the program. The changes have to be done only
once, on the file server, instead of on all the individual workstations.

Centralized Software Management - One of the greatest benefits of
installing a network at a school is the fact that all of the software can be
loaded on one computer (the file server). This eliminates that need to
spend time and energy installing updates and tracking files on
independent computers throughout the building.

Resource Sharing - Sharing resources is another area in which a network
exceeds stand-alone computers. Most schools cannot afford enough laser
printers, fax machines, modems, scanners, projector and bluray players
for each computer. However, if these or similar peripherals are added to a
network, they can be shared by many users.

Flexible Access - School networks allow students to access their files
from computers throughout the school. Students can begin an assignment
in their classroom, save part of it on a public access area of the network,
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then go to the media centre after school to finish their work. Students can
also work cooperatively through the network.

Security - Files and programs on a network can be designated as "copy
inhibit," so that you do not have to worry about illegal copying of
programs. Also, passwords can be established for specific directories to
restrict access to authorized users.
("Introduction", 2011)

Wireless Technology - Wireless technology enable network to connect
users who travel from location to location and also network a LAN
segment that must frequently change locations. This technology would be
of assistance to overcome situations where normal cabling is difficult or
financially impractical.

User-level Security - It provide access control to a file, printer or other
network resources based on user login. It provides greater protection than
share-level security, because users are identified individually or within a
group. User-level permissions are stored in a central server and managed
by the network IT administrator.

Cisco Network Features - Cisco network equipments would provide the
network with the following Ease-of-Use & Ease-of-Deployment,
performance, management options, manageability, availability, VLAN,
security, QoS & CoS, Power-over-Ethernet and monitoring features. This
features would further enhance the computer network capability.
3.2 Servers features

Proxy server - A server that acts an intermediary for requests from
clients seeking resources or services like a file, connection, web page
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from other servers. This server would act as the control when student
access the internet to prevent them from accessing undesired sites. But
this server would required an individual with related knowledge to
configure, updating and maintaining it.

DHCP server - DHCP allows a computer to be configured
automatically, eliminating the need for intervention by a network
administrator. It also provides a central database for keeping track of
computers that have been connected to the network. ("DHCP", 2011)
But this server would required an individual with related knowledge
to configure, updating and maintaining it.

File server - A server attached to a network that has the primary
purpose of providing a location for shared disk access, i.e. shared
storage of computer files (such as documents, sound files,
photographs, movies, images, etc.) that can be accessed by the PCs
that are connected to the computer network. But the disadvantage of it
was that if the server fail may cause the operation of the school to a
halt.

Database server - A server that provides database services to other
workstations or server. (SQL)

Print server - A server that manages the different requests for printing.
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3.3 Facilities features
Facilities of a typical primary school that needed to be networked:
Figure 3.1 - Networked classroom

Classrooms - A networked classroom illustrated in figure 3.1 would
be equipped with a teaching desktop PC, a teaching laptop which is
connectable to the school network & the short throw digital projector,
and a visualiser. Networking enable the teaching staff to make use of
the shared resources like file server or interactive soft/hardwares to
enrich the class work and support the range of educational
programmes provided

Principals' office - A networked office would be equipped with a
desktop PC to handle his daily works. And it enable the principal to
make use of the shared computer resources like printer and also
provided internet access.

Vice-principals' office - Similar to the principal's office this
networked office would be equipped with a desktop PC to handle the
daily works. It enable the vice-principal to make use of the shared
computer resources and also provided access to the internet.
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Figure 3.2 - Networked staff office

Staff office - A networked staff office illustrated in figure 3.2, each
staff should be equipped with a laptop connectable to the school
network which enable the staff to utilize the shared computer
resources and access to internet.

Admin office - A networked admin office, each staff should be
equipped with a laptop connectable to the school network which
enable the staff to utilize the shared computer resources like printer &
database server and access to internet.

ICT servers & equipments room - A room equipped with the
maintenance PC, routers, switches and servers to network the school
facilities.

Meeting room - - A networked meeting room should be equipped with
a desktop PC, a short throw digital projector, and a visualiser for
meeting purposes. Networking enable the staff to make use of the
shared resources like file server to store meeting materials.

General purpose room - A general purpose room are networked with a
desktop PC to provide ICT capability when needed.
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
IT resources room - The networked IT resources room provide student
to make use of the shared resources available in the room and enable
they to store their work in the file server. Teaching staff are able to
make use of the capability of the room provided to enrich their
teaching for the students.

Science Laboratory - Similar to the networked classroom, teaching
staff able to project teaching materials using the projector.
Figure 3.3 - Networked computer lab

Computer laboratory - The networked computer Lab illustrated in
figure 3.3 provide student to make use of the shared resources
available in the room and enable them to store their work in the file
server. It is also able to provide internet access to the internet.

Library - A networked library enable the students to make use of the
multi-media PC to play different media, a library database PC to
search the library for needed resources using the database store in the
database server and admin PC for the use of librarians to handle
borrowing and returning of books which save the records in the
database server..
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
School hall - A networked school hall enable the hall to present
materials or information through projector during school event. It also
enable to play videos or music and internet materials when needed.

School's Wi-Fi Corner - Provided internet access to teaching staff
when needed. Enable the students to make use of wireless tablets
during outdoor teaching.
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Chapter 4 - Design
4.1Network configuration
There are two types of network configuration, peer-to-peer networks and
client/server networks.
Figure 4.1 - Peer to Peer network configuration
Peer-to-peer networks illustrated in figure 4.1 are more commonly
implemented where less than ten computers are involved and where strict
security is not necessary. All computers have the same status, hence the term
'peer', and they communicate with each other on an equal footing. Files, such
as word processing or spreadsheet documents, can be shared across the
network and all the computers on the network can share devices, such as
printers or scanners, which are connected to any one computer.
The advantages of peer-to-peer networks are easy to set up, less expensive to
install compare to client/server network, can implement on a variety of
operating systems(OS) and it does not required a server to operate but the
network would be time consuming when need to manage its software and
applications as each software is located at different PC, it provide very low
level security or no security at all and needed only moderate skills of a IT
administrator to administer the network.
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Figure 4.2 - Client/server network configuration
Client/server networks illustrated in figure 4.2 are more suitable for larger
networks. A central computer, or 'server', acts as the storage location for files
and applications shared on the network. Usually the server is a higher than
average performance computer. The server also controls the network access
of the other computers which are referred to as the 'client' computers.
Typically, teachers and students in a school will use the client computers for
their work and only the network administrator (usually a designated staff
member) will have access rights to the server.
This network are more difficult and expensive to setup compare to peer-topeer network. A variety of OS can be implemented on the client but the server
would need to operate on a server OS. A centralized server would be less time
consuming to maintain, update and administer. Provided high level of security
and no limits to the number of users and computer hardware that can be
supported. This network would required high level of skills and a good
knowledge on server OS from the IT administrator.
Based on the investigation on different network configuration, client/server
network configuration are the suitable choice for this project. As this project
network need to support large number of users and the high level of security to
meet the needs of different group of user. Maintenance cost of the network is
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low due to the centralized configuration. IT administrator of this type of
configuration is easily available as well due to the popular of this
configuration.
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4.2 Network type
Today's most common network types include Ethernet, token ring, and
Asynchronous transfer mode (ATM) . Each of these three offers a viable
alternative for supporting a LAN, each with its own costs and performance
benefits ("soho3", 2011).
Figure 4.3 - Token ring network type
Token ring network type illustrated in figure 4.3 are all the computers are
arranged schematically in a circle using token passing protocol to send
message around the computer network. The only reason to even consider
basing a small business network design on token ring is in deference to some
prevailing concern, such as compatibility with a larger organizational network
("soho3", 2011).
Asynchronous transfer mode (ATM) follows a fundamentally different
approach. In an ATM network, data are broken into small fixed-size cells and
switched in virtual circuits established between computers. Most ATM
networks operate at a very respectable speed. Today, ATM is mostly found as
the backbone technology for computer networks. ATM switches require a
significant effort to configure. Usually an ATM network type is employ only
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if it required an extremely high-performance network to support data-intensive
applications such as large-scale imaging projects ("soho3", 2011).
Ethernet is the inexpensive and flexible choice to employ for a computer
network. Today, most desktop PC come with Ethernet ports integrated onto
the motherboard. Ethernet is associated with a set of networking rules called
CSMA/CD (Carrier Sense Multiple Access with Collision Detection),
formally specified by IEEE 802.3. These network rules describe how devices
on the network communicate with one another. Ethernet is a broadcast
network, in which all nodes have access to all data packets. Each packet has
an origin and destination address, and each computer should open the packet
only if the destination address matches its own network address. The network
supports multiple devices per segment, and each device can transmit on the
network at any time. If devices transmit exactly at the same time, however, a
collision occurs and the transmissions are lost. Therefore, each station must
check after it transmits to see if a collision occurred and, in the event of a
collision, wait a random interval and retransmit.
Most varieties of Ethernet operate at 100 Mbps, and each of the nodes on a
segment share this bandwidth. The stations on a segment share the overall
available bandwidth and can cause collisions with one another in the process.
The amount of overall bandwidth available to each station decreases and the
likelihood of excessive collisions goes up as the number of stations per
segment increases. The lower the number of stations per segment, the better
the network will function ("soho3", 2011). Example of Ethernet are Fast
Ethernet at 100Mbps and Gigabit Ethernet at 1000Mbps.
Bases on the study of the network types, Ethernet was the obvious option for
this project. The cost efficiency advantage of this network type would reduce
the cost of implementing the network which suit this project. IT administrator
who are skilled or have good knowledge on Ethernet are easily available. The
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available of Fast Ethernet and Gigabit Ethernet would suit the different needs
and requirements required by the school computer network.
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4.2 IP Addressing Scheme design
For this project, a structured address assignment model would be employed to design the school computer network. Structured address
assignment model enable easier troubleshooting while it also help the designer in interpreting the network maps and locate specific
equipment on the network. This model maximize network scalability and stability.
Standard practices of address assignment are assigning static addresses to routers and servers but use dynamic addresses for workstations
in the network. This IP addressing scheme minimizes manual addressing, reducing the chances of address duplication and stabilizing the
network’s addressing structure. Meaningful numbers can be assign when using static addresses; for example, reserve host addresses in the
low or high portion of the range, and manually assign these addresses to routers or servers ("technet", 2011).
Compare to static addresses by using dynamic addresses(DHCP) for clients in the project network are more time-saving and less prone to
error because DHCP server automatically allocates IP addresses and would be useful on the project network which have frequent
configuration changes. Another advantages of dynamic addresses are it easier to configure and requires minimal maintenance after the
implementation.
The table 4.1 below shown the estimation of host that would be utilizing the project computer network,
Estimate Number of
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Network Address
Subnet Mask
Max No. of Host
Network Name
32
Maximum Host
Available
Address Required
230
192.168.0.0
255.255.255.0
254
Class Vlan
200
192.168.1.0
255.255.255.0
254
Lab Vlan
200
192.168.2.0
255.255.255.0
254
Wireless Vlan
50
192.168.3.0
255.255.255.128
127
Staff Vlan
3
192.168.3.128
255.255.255.224
31
Server Vlan
24
192.168.3.160
255.255.255.224
31
IT Administrator Vlan
2
10.0.0.0
255.255.255.0
--
Link router0 and ISP
2
172.0.0.0
255.255.255.0
--
Link router1 and ISP
2
200.200.1.0
255.255.255.0
--
Link ISP and HTTP
Table 4.1 - Host estimation table
For this project, four subnets would be utilize to support the six Vlan identified. An estimated total of at least 707 host addresses would be
needed for the project network.
Subnets
1. 192.168.0.0
2. 192.168.1.0
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33
3. 192.168.2.0
4. 192.168.3.0
Vlan
1. Class Vlan
2. Lab Vlan
3. Wireless Vlan
4. Staff Vlan
5. Server Vlan
6. IT administrator Vlan
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4.3 Network diagram design
Network model
Figure 4.4 - Project Network Model
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Network diagram
Figure 4.5 - Network Diagram
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36
Chapter 5 - Project Management
5.1 Methodology
This project requires planning and analysis, feasibility studies, capacity
planning, and baseline creation in order to develop the computer network
design. SDLC or Systems Development Life Cycle will be apply as the
methodology, or plan for a structured approach to the development of the
project.
Systems Development Life Cycle involves these cyclical phases:

Planning - Identify the problems, opportunities, and objectives.

Analysis - Determine requirements.

Design - Design the system.

Implementation - Install the system and migrate from old to new.

Evaluation - Evaluate the performance and verify that all requirements
& objectives are meets.
Planning Phase

Identify the objectives of developing the computer network design.

Identify main networking components.

Identify the problems that will be face in developing this project

Identify the value of this project.

Prepare Project Proposal. (Unisim)
Analysis Phase
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37

Determine the requirements of a typical primary school by gathering
information using sampling and collecting hard data, interviewing,
questionnaires, observing the school environments, and prototyping.

Determine how the new network will operate.

Determine the topological design.

Determine the technical details of the network's capabilities.

Determine the protocols technologies for the computer network.

Determine the computer simulation software to be use.

Determine the equipments required to implement the network.

Perform feasibility studies.

Prepare Interim Report. (Unisim)
Design Phase

Design the topological design.

Design the IP addressing scheme

Design the network model

Design the physical layout of network diagram.
Implementation Phase

Simulate the implementation of the network using computer
simulation software.
Evaluation Phase

Verify all network requirements are meets.

Evaluate the performance of the computer network.

Create baseline.

Prepare Project Poster. (Unisim)
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
Prepare Project Report. (Unisim)

Prepare Project Presentation. (Unisim)
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5.2 Schedule
Project Activity list
This project activity list illustrated in table 5.1 is an documentation of all of
the scheduled activities that are part of this project. Information consists of
the unique activity identifier, activity description, duration given to complete
and start/end date of the activity are included in the list.
S/n
Task Name
Start of Project
1
Planning Phase
1.1 Capstone Commencement Briefing
1.2 Identify Project Objectives
1.3 Identify Project's Problems
1.4 Tutorial 1 - Proposal discussion
1.5 Tutorial 2 - Proposal discussion
1.6 Prepare Project's Proposal
2
Analysis Phase
2.1 Determine Network Requirements
2.2 Determine Network Topology design
2.3 Determine Network's Capabilities
2.4 Determine Protocols & Technologies
2.5 Tutorial 3 - Proposal Feedback
2.6 Determine Computer simulation software
2.7 Determine network equipments
2.8 Perform feasibility studies
2.9 Tutorial 4 - Progress meeting
2.10 Tutorial 5 - Progress meeting
2.11 Prepare Interim Report
3
Design Phase
3.1 Design network topology
3.2 Design IP addressing Scheme
3.3 Design network diagram
3.4 Design physical layout of network diagram
3.5 Implementation Phase
3.6 Tutorial 6 - Progress meeting
3.7 Simulate the computer network using Cisco Packet Tracer
4
Evaluation Phase
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Duration
218 days
22 days
1 day
2 days
2 days
1 day
1 day
16 days
45 days
4 days
3 days
3 days
3 days
1 day
2 days
2 days
2 days
1 day
1 day
24 days
19 days
4 days
5 days
5 days
5 days
30 days
1 day
30 days
35 days
Start
07/08/2010
07/08/2010
07/08/2010
09/08/2010
11/08/2010
13/08/2010
27/08/2010
16/08/2010
07/09/2010
07/09/2010
13/09/2010
16/09/2010
21/09/2010
24/09/2010
27/09/2010
29/09/2010
01/10/2010
05/10/2010
22/10/2010
06/10/2010
06/10/2010
06/10/2010
12/10/2010
19/10/2010
26/10/2010
15/11/2010
26/11/2010
15/11/2010
27/12/2010
End
04/06/2011
06/09/2010
07/08/2010
10/08/2010
12/08/2010
13/08/2010
27/08/2010
06/09/2010
08/11/2010
10/09/2010
15/09/2010
20/09/2010
23/09/2010
24/09/2010
28/09/2010
30/09/2010
04/10/2010
05/10/2010
22/10/2010
08/11/2010
01/11/2010
11/10/2010
18/10/2010
25/10/2010
01/11/2010
24/12/2010
26/11/2010
24/12/2010
11/02/2011
40
4.1
4.2
4.3
4.4
4.5
4.6
4.7
5
5.1
5.2
5.3
5.4
5.5
5.6
Tutorial 7 - Progress meeting
Verification of requirements
Testing of simulation
Tutorial 8 - Project Report Meeting
Evaluate design performance
Project Report Preparation
Project Report and Poster Design Briefing
Project Report writing Phase
Tutorial 9 - Project report meeting
Tutorial 10 - Project report meeting
Project report finalizing
Project report binding
Submit Project report
Project Presentation
Table 5.1 - Project Activity List table
1 day
10 days
16 days
1 day
8 days
82 days
1 day
36 days
1 day
1 day
10 days
15 days
1 day
1 day
27/12/2010
28/12/2010
11/01/2011
04/02/2011
02/02/2011
14/02/2011
19/02/2011
14/02/2011
11/03/2011
08/04/2011
04/04/2011
18/04/2011
16/05/2011
04/06/2011
27/12/2010
10/01/2011
01/02/2011
04/02/2011
11/02/2011
04/06/2011
19/02/2011
01/04/2011
11/03/2011
08/04/2011
15/04/2011
06/05/2011
16/05/2011
04/06/2011
The total effort required for this project is 218 man-days or 1417 hours. If
there are any delay in the completion of each task, buffer would be allocate
from activity "Project Report Preparation".
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Project Gnatt Chart
07/08/10 to 26/09/10
Figure 5.1 - Gnatt Chart diagram
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27/09/10 to 18/11/10
Figure 5.2 - Gnatt Chart diagram
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19/11/10 to 09/01/11
Figure 5.3 - Gnatt Chart diagram 3
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10/01/11 to 03/03/11
Figure 5.4 - Gnatt Chart diagram 4
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04/03/11 to 25/04/11
Figure 5.5 - Gnatt Chart diagram 5
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26/04/11 to 04/06/11
Figure 5.6 - Gnatt Chart diagram 6
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47
5.3 Risk assessment
Project
and
Task
number
Risk Event
Probability
Impact
(H/M/L)
Overall
Risk
059/1.1
Unable to attend Capstone
Project Briefing
M
M
M
059/1.4
Unable to attend the arranged
tutorial
H
M
H
059/1.6
Fail to submit Project Proposal
L
H
H
059/2.1
Unable to determine
requirements for the project
L
H
H
059/2.8
Project not feasibility
L
H
H
059/2.9
Fail to submit Interim Report
L
H
H
059/3.7
Unable to simulate the network
using Cisco Packet Tracer
L
H
H
059/4.1
Project progress latency
H
H
H
059/5.0
Fail to submit Project Poster
L
H
H
059/5.5
Fail to submit Project Report
L
H
H
059/5.6
Fail to turn up for Project
Presentation
L
H
H
059/4.2
Requirements not meet
M
H
H
059/4.3
Simulation fail
M
H
H
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Risk Response
Approach
Supervisor for
detail needed
Arrange another
date with
supervisor
Approach
Supervisor for
advice
Revise the
project
Revise the
project
Approach
Supervisor for
advice
Approach
Supervisor for
help
Reschedule the
progress
Approach
Supervisor for
advice
Approach
Supervisor for
advice
Approach
Supervisor for
advice
Approach
Supervisor for
advice
Approach
Supervisor for
advice
48
059/4.5
Performance not up to standard
Table 5.2 - Risk Assessment table
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M
H
H
Approach
Supervisor for
advice
49
Chapter 6 - Investigation and Experiment
6.1 Comparison of physical network topologies
Network topology is defined as the interconnection of the various elements (links, nodes, etc.) of a computer network. Topologies can
be physical or logical. ("Network topology", 2010)
Physical topologies - The physical design of a network including the devices, location and cable installation.
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Figure 6.1 - Physical topologies diagram
Star - All devices are connected to a central hub. Nodes communicate across the network by passing data through the hub.
Mesh - Devices are connected with many redundant interconnections between network nodes. In a true mesh topology every node has a
connection to every other node in the network.
Bus - All devices are connected to a central cable, called the bus or backbone.
Ring - All devices are connected to one another in the shape of a closed loop, so that each device is connected directly to two other
devices, one on either side of it.
Tree - A hybrid topology. Groups of star-configured networks are connected to a linear bus backbone. ("topologies", 2011)
Below table 6.1 was the summary of the advantages and disadvantages of each physical network topology.
Topologies
Advantages
Bus
Ring
Star
Easy installation
Easy installation
Easy installation
Low cost
Low cost
Simple addition of new
system
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Tree/Hybrid
Simple addition of new
Depend on
system
topologies
Simple addition of new
One break does not bring
used in the Hybrid.
system
whole network down
Mesh
Extremely fault
tolerant
51
Easier to troubleshoot
Disadvantages
Small networks (Suitable)
Small networks (Suitable)
Outdated technology
Outdated technology
Network down if cable
Network down if cable
breaks
breaks
Difficult to troubleshoot
Difficult to troubleshoot
Large networks (Not
Large networks (Not
suitable)
suitable)
Widely used
Centralized management
Expensive
High cost
Difficult to
Depend on
topologies
Network down when
central device fails
used in the Hybrid.
implement
Difficult to administer
Difficult to
troubleshoot
Table 6.1 - Physical Topologies table
From the investigation of the physical network topologies, star network topology would be employed as the physical network topology in
this project.
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6.2 Comparison of logical network topologies
Logical topology - How data is actually transferred in a network.
Below table 6.2 was the summary of the advantages and disadvantages of
each logical network topology. Detail of the each logical network topology is
described in "4.2 Network type" under chapter 4.
Topologies
Ethernet (Shared Media)
Unrestricted access to
the physical media
Token Based
No collisions
ATM
High network
performance
Advantages
Inexpensive
Suitable for small network
Latency
Disadvantages Collisions
Suitable as a
backbone technology
Difficult to configure
Restricted access to
the physical media
Expensive
(Needed Token)
Table 6.2 - Logical Topologies table
In this project shared media topology (Ethernet) will be employ as the logical
topology.
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6.3 Hardware
Hardware required:

Figure 6.2 shown the Fast Ethernet or 100BASE-TX - Cat5e 100
Mbps, ideal for sending large, complex files such as databases and
graphics.
Figure 6.2 - Cat5e Ethernet cable

Figure 6.3 shown the Gigabit Ethernet - Cat6 1000 Mbps, excellent
solution for those using bandwidth-intensive applications and where
high volume traffic exists.
Figure 6.3 - Cat 6 Ethernet cable
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
Figure 6.4 shown the Firewall - it serves as a security guard,
protecting the school network from unauthorized entry.
Figure 6.4 - Cisco PIX 506E

Figure 6.5 shown the Switch - direct traffic only to their destinations,
such as a printer, server, router or another user.
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Figure 6.5 - Cisco 2960 Switch

Figure 6.6 shown the Router - interconnects two or more computer
networks, and selectively interchanges packets of data between them.
Figure 6.6 - Cisco 2811 router

Figure 6.7 shown the Classroom PCs or admin PCs - PCs available for
teaching purposes in the classroom and administration purposes.
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Figure 6.7 - Desktop PC

Figure 6.8 shown the Staff Computers (Laptop) - Connectable to the
network and
fixed digital projector in order to access and show
digital content
Figure 6.8 - Laptop

Figure 6.9 shown the School servers - Provide server functions for the
network which was load with a server OS.
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Figure 6.9 - Server

Figure 6.10 shown the Wireless tablet - allows teachers and students
to draw, illustrate or write and project this through the digital
projector onto any projection surface.
Figure 6.10 - Wireless tablet

Figure 6.11 shown the Wireless access point - Connect computers
together without the use of cables, use wireless radio signals to send
information.
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Figure 6.11 - Wireless Access point
All hardwares required in setting up the primary school computer network
will be supplemented by using the computer simulation software in this
project.
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Below are some of the ICT based teaching products that can be implemented,

Figure 6.12 shown the Short throw projector - Uses to project
teaching materials for students.
Figure 6.12 - Short Throw Projector

Figure 6.13 shown the Visualisers - Visualise teaching material
without the needs to print out on paper.
Figure 6.13 - Visualisers

Figure 6.14 shown the Interactive Whiteboard - Able to integrate a
wide range of teaching material into a lesson. Promote interactivity
between teachers and students.
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Figure 6.14 - Interactive
Whiteboard

Figure 6.15 shown the Learner Response Systems - Able to engage,
motivate and empower each student. Work with personalised learning
software to allows students to work at their own level and pace.
Figure 6.15 - Learner Response System
Another advantages of implementing ICT in the classroom are assistive
technology. Assistive technology is any item, piece of equipment or product
system that is used to improve functional capabilities of students with
disabilities ("Assistive Technology", 2011).
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
Alternative Keyboards

Alternative Mice

Switches

Touch Screens

Augmentative and Alternative Communications

Portable Devices
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6.4 Software
Cisco Packet Tracer supplements physical equipment by allowing user to
create a computer network with an almost unlimited number of devices. It is a
powerful network simulation program that allows user to experiment with
network behaviour and ask “what if” questions. Packet Tracer able to provide
simulation,
visualization,
authoring,
assessment,
and
collaboration
capabilities.
The logical workspace illustrated in Figure 6.16 allows users to build logical
network topologies by placing, connecting, and clustering virtual network
devices.
Figure 6.16 - Logical Packet Tracer Simulation example 1
The physical workspace illustrated in Figure 6.17 provides a graphical
physical dimension of the logical network, giving a sense of scale and
placement in how network devices such as routers, switches, and hosts would
look in a real environment.
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Figure 6.17 - Physical Packet Tracer Simulation example 2
Cisco Packet Tracer provides two operating modes to visualize the behaviour
of a network—real-time mode and simulation mode. In real-time mode the
network behaves as real devices do, with immediate real-time response for all
network activities. The real-time mode gives user a viable alternative to real
equipment and allows them to gain configuration practice before working
with real equipment.
In simulation mode the user can see and control time intervals, the inner
workings of data transfer, and the propagation of data across a network. This
helps user understand the fundamental concepts behind network operations.
(”Cisco Packet Tracer DS", 2010)
In this project, Cisco Packet Tracer will be uses to develop the logical
computer network design and the simulation of the network of the primary
school.
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Other example of simulation software:
Figure 6.18 - NetSim Simulation example 1
Similar to Packer Tracer, Boson NetSim Network Simulator illustrated in
Figure 6.18 is an application that simulates Cisco Systems' networking
hardware and software but the main difference was that NetSim was able to
build an appropriate virtual routing table and simulate true networking traffic.
Its capability to simulates network traffic with virtual packet technology would
be a real value asset required to evaluate the network traffic's performance of
the computer network in a simulation environment before implementation. A
expensive option but would able to provide the required ability for any
network engineer to design their computer network in a simulation
environment. Required a good knowledge of operating the software.
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Figure 6.19 - GNS3 Simulation example 1
An inexpensive option for simulation of a computer network because it was an
open source and free program available for download. Similar to Packet
Tracer, GNS3 is a graphical network simulator illustrated in Figure 6.19 that
allows simulation of complex networks that simulates on Cisco equipments.
Unlike NetSim this software was not able to simulate real network traffic for
testing purposes. Disadvantages of this software are it was not very userfriendly compare to the two simulation software mentioned above. And there
are a need to download other programs to allow full simulation.
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6.5 Evaluation
In this chapter, different physical/logical network topologies are investigated.
Based on the their advantages/disadvantages and suitability for the project,
Star physical network topology and Shared Media or Ethernet are selected for
this project's computer network.
The advantages of easy installation and simple addition of new network
equipments or computer hardwares ensure that the future expansion of the
school computer network would have with no trouble in its implementation.
The probability of total failure of the computer network was minimized
because one break of the network would not causes the whole network to be
down. Due to the popularity of this type of physical and logical topology, cost
of setting up was reduced. Compare to other topologies, the centralized
structure ensure that it was easier to troubleshoot any problems.
A potential problem exist in the type of physical network topology chosen
was if a centralized equipment was down, may caused the failure of the
network. But this problems can be solved by ensuring a failover device was
ready to take over when the failure of the active device occur. From the figure
4.5 in chapter 4 shown the design of a network diagram with a active router
and a passive or failover router ready to take over when failure occur. The
network diagram also shown that by dividing each parts of the school to
different switches would minimize the risk of total failure of the computer
network. Collision would be a potential problem in the network too but by
ensuring different segments of the network is separated to different switches
would help relieve this problem.
Different type of network and computer hardwares that are needed to set up
the computer network are identified in the investigation for this project.
Different types of ICT-based teaching equipments are introduced in this
chapter so as to illustrate that the implementing of ICT technology in
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classroom would broaden the range of educational programmes enable to be
put into service for the students.
Lastly was the selection of the simulation software for this project. Packet
Tracer 5.3 was selected for its user-friendly interface and capability to
simulates Cisco Systems' networking hardware/software but there would be a
lack of a critical function which is
the simulation of network traffic.
Investigation shown that NetSim proved to be a better choice in the
simulation of the project than Packet Tracer but NetSim required a higher
technical knowledge in order to utilize it and the cost of obtaining the
software is high.
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Chapter 7 - Simulation
7.1 Network simulation model
Figure 7.1 below illustrated the logical network simulation model created by Packet Tracer 5.3 simulation software for this project
computer network.
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Figure 7.1 - Project Simulation model
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Simulation of the school computer network are based on the floor map design
illustrate in floor map section of Appendix B.
Figure 7.1.2 - Vlan and Sub interface addresses
Figure 7.2 - Simulation main routers/switches
The computer network designed illustrated in figure 7.2 was support by one
active router (Router1) and one passive/failover router (Router0) which
connect to the router simulating ISP service. Main Switch0 was connected to
switches of Level 2 & 3facilities and main Switch1 connected to switches of
level 1 & 4, servers and wireless corner facilities. This design follow the Star
physical topology selected. A IT administrator PC was connected to main
Switch1 to perform maintenance services for the network.
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Figure 7.3 - Simulation of Level 1
This section illustrated in figure 7.3 shown the switches connecting to main
Switch1 and the level 1 facilities connecting to the network.
Figure 7.4 - Simulation of Wireless Corner
This part of the simulation illustrated in figure 7.3 display the wireless corner
of the school network. A wireless switch connected to the main Switch1 and
two different wireless access points providing different functions. One was for
providing internet access in the area and another one was for conducting
outdoor teaching.
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Figure 7.5 - Simulation of Level 2
This section illustrated in figure 7.5 shown the switches connecting to main
Switch0 and the level 2 facilities connecting to the network.
Figure 7.6 - Simulation of Level 2 Servers
This section illustrated in figure 7.6 shown the switches connecting to main
Switch1 and the different types of server connecting to the network.
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Figure 7.7 - Simulation of Level 3
This section illustrated in figure 7.7 shown the switches connecting to main
Switch0 and the level 3 facilities connecting to the network.
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Figure 7.7 - Simulation of Level 4
This section illustrated in figure 7.7 shown the switches connecting to main
Switch1 and the level 4 facilities connecting to the network.
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7.2 Network simulation features
The first feature of this simulation model are the controlled access to the
simulation HTTP server by passing the ISP router. Iillustrated in figure 7.8 &
7.9 was the screenshot of the successful and unsuccessful attempt. Only Vlan
3, 4, 5 &7 are allowed to access the simulated internet in this simulation
network.
Figure 7.8 - Simulation of successful internet attempt
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Figure 7.9 - Simulation of unsuccessful internet attempt
The second feature illustrated in figure 7.10 of this simulation model are the
capability of only IT administrator was able to telnet to all routers and
switches in the network to perform maintenance services.
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Figure 7.10 - Simulation of telnet access
The third feature illustrated in figure 7.11 of this simulation model are the FTP
server created to act as the storage server in the network. All users of the
network would be able to connect to the FTP server and use it depend on the
account assigned to them.
Figure 7.11 - Simulation of FTP access
Figure 7.12 - Simulation of ICMP testing between facilities
This feature illustrated in figure 7.12 was employ to test the ICMP connection
which was similar to the "Ping" function between the facilities connected to
the network.
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Figure 7.13 - Simulation mode of Packet Tracer
In simulation mode this feature illustrated in figure 7.13 enable the user to see
and control time intervals, the inner workings of data transfer, and the
propagation of data across the network defined by the scenario created.
Due to the limitation of Packet Tracer 5.3 software, network features like auto
switchover from active to passive router and the restriction access of users
connecting to the network based on time and date were not able to implement
in the simulated network.
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7.3 Network configuration
Network configuration code of
routers and switches for this project
simulation computer network are illustrated under Simulation model
configuration of Appendix B in this report. Username/Passwords for routers
& switches and WEP key of all the wireless access point are also included in
the Simulation Model Passwords & WEP Key of Appendix B.
7.4 Virtual Local Area Network
Network
Max No. of
Internet
address
host
Access
2
192.168.0.0
254
No
Lab Vlan
3
192.168.1.0
254
Yes
Wireless Vlan
4
192.168.2.0
254
Yes
Staff Vlan
5
192.168.3.0
127
Yes
Server Vlan
6
192.168.3.128
31
No
IT admin Vlan
7
192.168.3.160
31
Yes
Vlan Name
Vlan Number
Class Vlan
Table 7.1 - Vlan table
All simulated Vlan shall be able to connect to each other in the network. Only
access to the simulated HTTP server was controlled. Further expansion of
network can be done by adding new Vlan.
7.5 IP addressing scheme
IP addressing scheme, router interface scheme and switch interface scheme
employed for this project simulation computer network are illustrated under
Appendix A in this report.
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IP addressing scheme of the project would include information of number of
host address required, network address, subnet mask, total number of used IP
address & available IP address, maximum number of host available and the
network name.
Router interface scheme consists of information like description and purpose
of each interface on the router and the network information each interface
connect from/to.
Switch interface scheme consists of information like description and purpose
of each interface on the switch,
the network information each interface
connect from/to and the switch port type of each interface.
7.6 Testing
Test results for this project simulation computer network are illustrated in
Appendix C.
Simulation test results include of:

ICMP connection between Vlan

DHCP connectivity

Vlan connectivity to the HTTP server.

Telnet results to all routers and switches from the IT admin PC

FTP connectivity of users

Scenario illustrated in table 7.2, 7.3 & 7.4 would be used for
testing in Packet Tracer simulation mode
 Scenario 0 - Class Vlan to different Vlan
From
To
Type
2A PC
2B PC
ICMP
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81
2A PC
Lab 3 PC
ICMP
2A PC
4M wireless tablet ICMP
2A PC
General
Purpose ICMP
PC
2A PC
File server
ICMP
2A PC
IT admin PC
ICMP
Table 7.2 - Scenario 0 table
 Scenario 1 - Server Vlan to different Vlan
From
To
Type
DHCP Server
1A
ICMP
DHCP Server
Lab 3 PC
ICMP
DHCP Server
Wireless PC
ICMP
DHCP Server
Vice-principal PC ICMP
DHCP Server
FTP server
ICMP
DHCP Server
IT admin PC
ICMP
Table 7.3 - Scenario 1 table
 Scenario 2 - IT admin Vlan to different Vlan
From
To
Type
IT admin PC
3F PC
ICMP
IT admin PC
Hall PC
ICMP
IT admin PC
Science Lab 1 PC ICMP
IT admin PC
4N
Wireless ICMP
tablet
IT admin PC
DHCP Server
ICMP
IT admin PC
IT admin PC
ICMP
Table 7.4 - Scenario 2 table
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7.7Evaluation
In this chapter, the simulation of the computer network is illustrated and
defined. The simulated computer network are segmented bases on the floor
level, location of the facilities and the types of facilities in the computer
network. In this way the presentation of the simulation network allowed the
network to be easy to understand by the stakeholders and equipments in the
network can be located more effortlessly. The network structure of the
simulation was based on the investigation in this report, using the selected
Server/Client network configuration, Star network topology and Ethernet
logical network topology which was believed to be the most suitable for this
project.
By using the Packet Tracer simulation software, the network could be
implemented with features include of DHCP addressing for client users,
creation of a simulated HTTP server for internet access, telnet access for
maintenance purposes and the setup of a FTP server to simulate as a storage
server. Packet Tracer also provided built in testing mechanism to test the
ICMP connection between the facilities connected to the network. Simulation
mode of Packet Tracer allow designer to observe the inner workings of data
transfer, and the propagation of data across the network so as to identify
problems earlier before the implementation start.
Through the investigation, better simulation software like NetSim was found
which was able to provide additional functions for the simulation network
like the utilize of latest version of routers/switches and the capability to
simulate real network traffic which Packet Tracer cannot.
The simulated compute network's IP addressing scheme was constructed
based on the structured assignment model discussed in the previous chapter.
The IP addressing scheme developed are believed to be able to support the
number of users needed, while segmented the different group of users into
ICT499 CAPSTONE PROJECT REPORT
83
different Vlan and record down detail information on each router and switch
needed in the network.
Testing results shown that all facilities in the simulated network are
connected. All clients are able to use DHCP for dynamical addressing for the
computer hardware. Only the intended Vlan are able to access internet.
Maintenance services can be provide from a centralized location to all
network equipments. Only users with the admin right access can delete and
write the FTP server. Result obtained for the different scenario in the
simulation mode are accurate.
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Chapter 8 - Conclusion and recommendation
The computer network this project designed must be able to meet the
identified design considerations, requirements and the needed features of a
typical primary school's computer network in order to be considered as an
optimized computer network intended to be develop for this project.
The assessment of a complete set of requirement, feature and design
consideration allowed the network designed to have a set of guideline to
follow during the whole project development phase. The feasibility studies on
the design considerations, requirements and features clearly shown that an
optimized computer network can be created if the computer network were able
to meet the requirements identified, having the features needed in the network
and utilize the selected network configuration & physical/logical network
topology.
In this project, the structured address assignment approach shown clearly that
it was very suitable to be employ for the project's computer network. Another
finding was that setting up of the physical computer network in real life can
be based on the location of the facilities in the school, floor level of the
school and the types of facilities so as to save on cost of cabling and exploit
the cost-saving feature of a centralized design.The structured approach of
System Development Life Cycle (SDLC) employed on the development of
this project allowed the project to be well-organized and efficiently
completed.
The second main part of this project was to evaluate the computer network
design process employed in this project to the traditional network design
process. The development of a simulation model of the computer network
designed in this project clearly shown that the benefits and advantages
identified for using of simulation in the report.
ICT499 CAPSTONE PROJECT REPORT
85
In this project a simulation of the network designed for this project was
created in order to demonstrate that this approach employ in the project is
possible and advisable to employ. But if the simulation of this project was
able to generate real network traffic the design of the project network would
be even more improved. To conclude the report, the network design process
employed in this project was found to be better than traditional design
process and majority of the design consideration, requirement and feature are
identified.
Recommendation:
The computer network can be further modified/enhanced its functionalities
and to be build more closely to the user requirements,
1. A better simulation software like NetSim 8.0 that can generate real
network traffic can be utilize for the developing of the project's
simulation computer network.
2. A more detailed analysis of requirements can to be conducted.
3. Can exploit better or newer routers or switches in the network
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Chapter 9 - Reflection
This project present a lot of problems for me especially during the planning
phase of the project, a lot of concerns like how to acquire the skills needed to
complete the project, how to cope between this project and my other studies
in Unisim, how I going to refresh the related knowledge I learned during my
Polytechnic days and a lot more... But with the discussion with my project
supervisor and the advices he given to me during the whole project period
ensure that this project was successfully developed. He provided me with
detailed information on what he expected from the project from the very
beginning meeting. Always help me make the correct decision during each
critical part of the project. Refreshing myself with network knowledge would
be the first priority before starting my project. And next would be finalizing
the objectives of the project and how the project would be developed.
For skill review, I felt that the key skills really needed for the project are
project management skill and Cisco router/switch configuration skill. This
capstone project was a one year project that need careful planning and
scheduling before it can begin but lucky for me the project management
knowledge I learned during the studies in Unisim helped me a lot. I last
configure a router was when I still studying in the Polytechnic, this project
allow me to retain the skill of what I learn before. During this whole year of
developing the project, I was able to practice and improve on both of this
skills needed in the project.
A lot of problems happen during the whole project period which caused the
delay in progress of the project but it a good learning experience for me to
deal & solve the problems with my project supervisor and friends. One of the
significant problem was during the design phase of the project, I need to
produce a optimized design of the network but the lack of real life network
implementation experience resulting the design of my network to be not
realistic to be implemented. After a good discussion with my supervisor and a
ICT499 CAPSTONE PROJECT REPORT
87
network engineer friend, and spent a lot of time online searching for relevant
information, and editing the design of network several time before the
problem was solved.
The next significant problem I faced was the insufficient time needed to
develop the simulation model during the implementation phase. In the
planning phase, I allocated 30 days to complete the simulation model but due
to the examination period I needed that time to focus on my exam so the
project was push back one month time and may caused the whole project to
delay by one month. in order to solved this problem, a month buffer allocated
from the writing report period so as to not affect the completion of the
project.
Anyway, I really learned a lot from the capstone project. The project present
me with a lot of challenges and problems which needed me to resolve. And I
have a better understanding of the project management techniques and skills
that I learned which would be help me in my future work. The remind of my
knowledge I learned during my polytechnic day and putting it to good use in
the project. Lastly, now I'm confident to know that I can manage a IT
network project efficiently.
Total words - 10,430
ICT499 CAPSTONE PROJECT REPORT
88
References
Computer Networking. Retrieved Mar 09, 2011 from
http://en.wikipedia.org/wiki/Computer_network
prime. Retrieved Mar 09, 2011 from
http://www.moe.gov.sg/initiatives/prime/
Network planning and design. Retrieved , Mar 09 2011 from
http://en.wikipedia.org/wiki/Network_planning_and_design#References
International Institute for Learning, Inc (2011), Business Analysis Certificate
Program (Book 1). International Institute for Learning, Inc
DHCP. Retrieved , Mar 10 2011 from
http://en.wikipedia.org/wiki/Dynamic_Host_Configuration_Protocol
soho3. Retrieved , Mar 10 2011 from
http://www.networkcomputing.com/netdesign/soho3.html
technet. Retrieved , Mar 20 2011 from
http://technet.microsoft.com/en-us/library/cc779481%28WS.10%29.aspx
Network topology. Retrieved Apr 04, 2011 from
http://en.wikipedia.org/wiki/Network_topology
Assistive Technology. Retrieved Apr 04, 2011 from
http://www.ncte.ie/SpecialNeedsICT/ResourcesAdvice/AssistiveTechnology/
topologies. Retrieved Apr 04, 2011 from
http://www.webopedia.com/quick_ref/topologies.asp
ICT499 CAPSTONE PROJECT REPORT
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Appendix A
Stakeholder
Interest
Impact
High
High
PRIME project committee
High
High
Principal
High
Low
Teacher
High
Low
Student
High
Low
Parent
Medium
Low
Low
Medium
Medium
Low
Ministry of Education
(MOE)
IT administrator
Admin Staff
Table 2.1 - Stakeholder Register
Req ID
S01
S02
S03
S04
S05
S06
Requirement Description
The MOE shall be able to employ this project to improve the
current primary school education system.
The MOE shall be able to offer better school facilities for
students.
The MOE shall be able to provide a wide range of educational
programmes.
The MOE shall be able to upgrade or enhance current computer
network or computer network design of primary school.
The MOE shall be able to enhance or improve the data or voice
communication between MOE and the schools.
The project committee shall be able to employ this project for all
the primary schools under the PRIME programme.
Stakeholder
MOE
MOE
MOE
MOE
MOE
PRIME
The project committee shall be able to employ this project as part
S07
of the infrastructure design for the new or upgraded facilities
PRIME
developed under the PRIME programme.
S08
The project committee shall be able to offer a physical
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PRIME
90
environment with a optimized computer network that are
beneficial to learning and creative thinking.
The project committee shall be able to employ this project
S09
approach of designing the computer network under the PRIME
PRIME
programme.
The principal shall be able to utilize the variety of function and
S10
facilities a computer network can offer to improve the education
Principal
model in the school.
S11
S12
S13
S14
S15
S16
S17
S18
S19
S20
S21
The principal shall be able to improve the productivity of the
school due to the IT networking of the whole school.
The principal shall be able to exploit the benefits of the new or
upgraded facilities.
The principal shall be able to utilize lesser resources to complete
the school objectives.
The teacher shall be able to utilize more innovative& creative
method of teaching in the class through the use of IT technology.
The teacher shall be able to utilize the features that the computer
network has to offer to do their job more efficiently.
The student shall be able to benefit from
the wide range of
educational programmes.
The student shall be able to be more IT savvy.
The student shall be able to benefits from the more creative and
innovative teaching.
The parent shall be able to be provided with a more effective and
faster administration service at the school.
The IT administrator shall be able to perform the maintenance for
the computer network using a centralized PC.
The admin staff shall be able to perform their job more effectively
and efficiently.
Table 2.2 - Stakeholder Requirements Documentation
ICT499 CAPSTONE PROJECT REPORT
Principal
Principal
Principal
Teacher
Teacher
Student
Student
Student
Parent
IT admin
Admin Staff
91
Req ID
Requirement Description
F01
The network would enable interconnectivity of users and resources.
F02
The network would support shared access for files and data.
F03
The network would support resources sharing.
F04
The network would support data transfer.
F05
The network would allow bulk transfer.
F06
The network would support FTP service.
F07
The network would support multi-user database service.
F08
The network would connect to the internet.
F09
The network would support DHCP service.
F10
The network would connect to a file storage server.
F11
The network would have a centralized maintenance PC.
F12
The network would support wireless technology and its equipments.
The network would support a variety of computer hardware
F13
including tablet-PC, laptop, desktop PC, printer, scanner and
projector.
F14
The network would maintain log for tracking & auditing.
F15
The network would be able to support 3 to 4 servers.
F16
The network would provide internet for specific group of users.
F17
F18
F19
The network would control the internet speed for each group of
users.
The network would have a failover router, ready to takeover when
the main router fail.
The network would be subdivide into different Vlan based on
different group of user.
F20
Each Vlan will be allocate with enough IP address to support.
F21
There would be enough IP addresses to be allocate for all users.
F22
Each Vlan have different access rights to different Vlan.
F23
Each computer Lab would support up to 40 PCs.
F24
Each multi-media Lab would support up to 20 PCs.
F25
Only the IT administrator PC can allocate administration rights.
ICT499 CAPSTONE PROJECT REPORT
92
F26
F27
Different group of users would have different access rights to the
servers.
Different group of users would have different time limit access to
the computer network.
Table 2.3 - Functional Requirements Documentation
Req ID
nF01
nF02
nF03
nF04
nF05
nF06
nF07
nF08
nF09
nF10
nF11
nF12
nF13
Requirement Description
The computer network would keep the servers & workstations in the
school computer network anonymous.
The computer network would includes a access policy to network
services or content. Block undesired sites
The computer network would offer security/ parental controls.
The computer network would offer system security to limit access
to files to specific users or groups.
The computer network would scan outbound content for data leak
protection.
The computer network would scan transmitted content for malware
or virus.
The computer network would track and report successful and
unsuccessful login access.
The computer network would ensure confidential information is
protected and encrypted.
The system will be accessible and available to all authorized users
99.5 % of the time.
The computer network's server response time for worst-case
latency will be less than 100 millisecond.
The computer network's DHCP service response time for worst-case
latency will be less than 60 second.
The computer network must not have more than one time of
unplanned outrages.
The computer network meantime between failures are one day.
ICT499 CAPSTONE PROJECT REPORT
93
nF14
nF15
nF16
nF17
The computer network data transfer speed must be more than 10
Mbps.
The computer network must be able to handle the peak volume of
data traffic during school time.
The file storage server must be able to store more than 100Tb of
data.
The database server must able to store present, past and future
students and all staff particulars information.
Table 2.4 - Non-Functional Requirements Documentation
Req ID
S01
S02
S03
Requirement Description
The past student particulars would be converted from the old
database to the new database system.
All data before the implementation of the computer network will be
archived.
The old system would be dismantling.
The computer network's equipments includes of routers, switches
S04
and connecting cable infrastructure would be support and
maintained by third party.
S05
S06
S07
S08
S09
S10
The computer hardware would support and maintained internally.
The
computer
network
would
have
monthly
preventive
maintenance.
The computer network defect and small enhancements will be
addressed on a monthly basis.
The computer network applications would be updated every three
months.
The computer network equipments would follow the approval
process to reboot.
Login information would be retain for one year and archive every
months.
ICT499 CAPSTONE PROJECT REPORT
94
S11
Data stored in the file storage server would be retain for one year
and archive every months.
S12
IT administrators would perform the preventive maintenance.
S13
IT administrator would perform the monthly backup required.
S14
S15
IT administrator would address the small problems or defects
weekly.
Tracking log information must be printable in a presentable form.
Table 2.5 - System Requirements Documentation
Req ID
I01
I02
I03
Requirement Description
The admin staff would be able to retrieve student information from
the student particular database.
The teacher would be able to retrieve teaching material from the
file storage server.
The teacher would be able to save the exam paper in the school
storage system.
I04
The users would access the internet using the web browser.
I05
The users would access the e-mail using the web browser.
I06
IT administrator would access the routers and switches using the
command prompt.
I07
The servers would run on Windows 2007 server.
I08
The PCs would run on Windows 7.
I09
Firefox 4.0 web browser would be utilized.
I10
MySQL would be use to amend the school database.
I11
I12
I13
Server must utilize 128-bit SSL certificates to ensure encryption of
users browser session.
Users must utilize encryption mechanism to login to system.
Single sign-on capability would be enabled through integration for
internal users.
Table 2.6 - Infrastructure Requirements Documentation
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Appendix B
IP Addressing Scheme
Number of Host Address Required
Network Address
Subnet Mask
223
192.168.0.0
255.255.255.0
175
192.168.1.0
255.255.255.0
174
192.168.2.0
255.255.255.0
60
192.168.3.0
255.255.255.128
5
192.168.3.128
255.255.255.224
28
192.168.3.160
255.255.255.224
2
10.0.0.0
255.255.255.0
2
172.0.0.0
2
200.200.1.0
Table 4.1 - Simulation model IP addressing scheme table
ICT499 CAPSTONE PROJECT REPORT
Used/Available
Max No. of Host Available
Network Name
254
Class Vlan
254
Lab Vlan
254
Wireless Vlan
127
Staff Vlan
31
Server Vlan
31
IT Administrator Vlan
--
--
Link router0 and ISP
255.255.255.0
--
--
Link router1 and ISP
255.255.255.0
--
--
Link ISP and HTTP
223 Used
21 available
175 Used
79 available
174 Used
80 available
60 Used
67 available
5 Used
26 available
28Used
3 available
96
Router Interface Scheme
Router name - Router0
Description
DTE DCE
Network Name
And Purpose
(If application)
S0/0/1
Link between
DTE
Link router0 and ISP
Router0 and
ISP
F 0/0.1
Link between
-Class Vlan
Router0 and
Switch0
F 0/0.2
Link between
-Lab Vlan
Router0 and
Switch0
F 0/0.3
Link between
-Wireless Vlan
Router0 and
Switch0
F 0/0.4
Link between
-Staff Vlan
Router0 and
Switch0
F 0/0.5
Link between
-Server Vlan
Router0 and
Switch0
F 0/0.6
Link between
-IT Administrator Vlan
Router0 and
Switch0
Table 4.2 - Simulation model Router0 IP addressing table
ICT499 CAPSTONE PROJECT REPORT
Network
Number
10.0.0.0
Interface IP address
Subnet Mask
MASK
10.0.0.1
255.255.255.0
/24
192.168.0.0
192.168.0.1
255.255.255.0
/24
192.168.1.0
192.168.1.1
255.255.255.0
/24
192.168.2.0
192.168.2.1
255.255.255.0
/24
192.168.3.0
192.168.3.1
255.255.255.128
/25
192.168.3.0
192.168.3.129
255.255.255.224
/27
192.168.3.0
192.168.3.161
255.255.255.224
/27
97
Router name - Router1
Description
DTE DCE
Network Name
And Purpose
(If application)
S0/0/1
Link between
DTE
Link router0 and ISP
Router1 and
ISP
F 0/0.1
Link between
-Class Vlan
Router1 and
Switch1
F 0/0.2
Link between
-Lab Vlan
Router1 and
Switch1
F 0/0.3
Link between
-Wireless Vlan
Router1 and
Switch1
F 0/0.4
Link between
-Staff Vlan
Router1 and
Switch1
F 0/0.5
Link between
-Server Vlan
Router1 and
Switch1
F 0/0.6
Link between
-IT Administrator Vlan
Router1 and
Switch1
Table 4.2 - Simulation model Router1 IP addressing table
Router name - ISP
ICT499 CAPSTONE PROJECT REPORT
Network
Number
172.0.0.0
Interface IP address
Subnet Mask
MASK
172.0.0.1
255.255.255.0
/24
192.168.0.0
192.168.0.1
255.255.255.0
/24
192.168.1.0
192.168.1.1
255.255.255.0
/24
192.168.2.0
192.168.2.1
255.255.255.0
/24
192.168.3.0
192.168.3.1
255.255.255.128
/25
192.168.3.0
192.168.3.129
255.255.255.224
/27
192.168.3.0
192.168.3.161
255.255.255.224
/27
98
Description
DTE DCE
And Purpose
(If application)
S2/0
Link between
DTE
Router0 and
ISP
S3/0
Link between
DTE
Router1 and
ISP
F 0/0
Link between
-ISP and HTTP
Table 4.2 - Simulation model ISP IP addressing table
Switch Interface Scheme
ICT499 CAPSTONE PROJECT REPORT
Network Name
Interface IP address
Subnet Mask
MASK
Link router0 and ISP
Network
Number
10.0.0.0
10.0.0.1
255.255.255.0
/24
Link router1 and ISP
172.0.0.0
172.0.0.1
255.255.255.0
/24
Link ISP and HTTP
200.200.1.0
200.200.1.1
255.255.255.0
/24
99
Switch name - switch0
Description
Speed Duplex
And Purpose
f 0/1
Trunk port to Router0
Auto
Full
f 0/2
Reserved
--f 0/3
Trunk port to Lab1 Switch
Auto
Full
f 0/4
Trunk port to Lab2 Switch
Auto
Full
f 0/5
Trunk port to Lab3 Switch
Auto
Full
f 0/6
Trunk port to Class21 Switch
Auto
Full
f 0/7
Trunk port to Class22 Switch
Auto
Full
f 0/8
Trunk port to Staff2 Switch
Auto
Full
f 0/9
Trunk port to Class31 Switch
Auto
Full
f 0/10
Trunk port to Class32 Switch
Auto
Full
f 0/11
Trunk port to Class33 Switch
Auto
Full
f 0/12
Trunk port to Lab4 Switch
Auto
Full
f 0/13
Trunk port to Lab5 Switch
Auto
Full
f 0/14
Trunk port to Staff3 Switch
Auto
Full
f 0/15
Trunk port to Lab1-2 Switch
Auto
Full
f 0/16
Trunk port to Lab2-2 Switch
Auto
Full
f 0/17
Trunk port to Lab3-2 Switch
Auto
Full
f 0/18
Trunk port to Staff2-2 Switch
Auto
Full
f 0/19
Trunk port to Lab5-2 Switch
Auto
Full
f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Gig1/1 Trunk port to Switch1
Auto
Full
Table 4.2 - Simulation model Switch0 IP addressing table
Network Name
Network
Subnet Mask
VLAN
--------------------------
--------------------------
--------------------------
--------------------------
Switch
port type
Trunk
-Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
-----Trunk
Switch name - switch1
Description
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Switch
100
And Purpose
f 0/1
Trunk port to Router1
Auto
Full
f 0/2
Reserved
--f 0/3
Trunk port to Server1 Switch
Auto
Full
f 0/4
Trunk port to Class11 Switch
Auto
Full
f 0/5
Trunk port to Class12 Switch
Auto
Full
f 0/6
Trunk port to Class41 Switch
Auto
Full
f 0/7
Trunk port to Class42 Switch
Auto
Full
f 0/8
Trunk port to Class43Switch
Auto
Full
f 0/9
Trunk port to Class44 Switch
Auto
Full
f 0/10
Trunk port to Wireless Point
Auto
Full
Switch
f 0/11
Trunk port to Staff1 Switch
Auto
Full
f 0/12
Access port for Vlan 7
Auto
Full
f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Gig1/1 Trunk port to Switch1
Auto
Full
Table 4.2 - Simulation model Switch1 IP addressing table
-----------
-----------
-----------
-----------
port type
Trunk
-Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
Trunk
-IT administrator Vlan
--------------
-192.168.3.160
--------------
-255.255.255.224
--------------
-7
--------------
Trunk
Access
------------Trunk
Switch name - Lab1
Description
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Switch
101
And Purpose
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 3
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Access port for Vlan 3
Auto
Full
f 0/21
Access port for Vlan 3
Auto
Full
f 0/22
Access port for Vlan 3
Auto
Full
f 0/23
Access port for Vlan 3
Auto
Full
f 0/24
Access port for Vlan 3
Auto
Full
Table 4.2 - Simulation model lab1 switch IP addressing table
Switch name - Lab1-2
ICT499 CAPSTONE PROJECT REPORT
-Lab Vlan
Class Vlan
Class Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
-192.168.1.0
192.168.0.0
192.168.0.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
-3
2
2
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
port type
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
102
Description
Speed Duplex
And Purpose
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 3
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Access port for Vlan 3
Auto
Full
f 0/21
Access port for Vlan 3
Auto
Full
f 0/22
Access port for Vlan 3
Auto
Full
f 0/23
Access port for Vlan 3
Auto
Full
f 0/24
Access port for Vlan 3
Auto
Full
Table 4.2 - Simulation model lab1-2 switch IP addressing table
Network Name
Network
Subnet Mask
VLAN
-Lab Vlan
Class Vlan
Class Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
-192.168.1.0
192.168.0.0
192.168.0.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
-3
2
2
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Switch name - Lab2
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
Switch
port type
103
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 3
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Access port for Vlan 3
Auto
Full
f 0/21
Access port for Vlan 3
Auto
Full
f 0/22
Access port for Vlan 3
Auto
Full
f 0/23
Access port for Vlan 3
Auto
Full
f 0/24
Access port for Vlan 3
Auto
Full
Table 4.2 - Simulation model lab2 switch IP addressing table
-Lab Vlan
Class Vlan
Class Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
-192.168.1.0
192.168.0.0
192.168.0.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
-3
2
2
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Lab2-2
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
104
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 3
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Access port for Vlan 3
Auto
Full
f 0/21
Access port for Vlan 3
Auto
Full
f 0/22
Access port for Vlan 3
Auto
Full
f 0/23
Access port for Vlan 3
Auto
Full
f 0/24
Access port for Vlan 3
Auto
Full
Table 4.2 - Simulation model lab2-2 switch IP addressing table
-Lab Vlan
Class Vlan
Class Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
-192.168.1.0
192.168.0.0
192.168.0.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
-3
2
2
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Lab3
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
105
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 3
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Access port for Vlan 3
Auto
Full
f 0/21
Access port for Vlan 3
Auto
Full
f 0/22
Access port for Vlan 3
Auto
Full
f 0/23
Access port for Vlan 3
Auto
Full
f 0/24
Access port for Vlan 3
Auto
Full
Table 4.2 - Simulation model lab3 switch IP addressing table
-Lab Vlan
Class Vlan
Class Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
-192.168.1.0
192.168.0.0
192.168.0.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
-3
2
2
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Lab3-2
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
106
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 3
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Access port for Vlan 3
Auto
Full
f 0/21
Access port for Vlan 3
Auto
Full
f 0/22
Access port for Vlan 3
Auto
Full
f 0/23
Access port for Vlan 3
Auto
Full
f 0/24
Access port for Vlan 3
Auto
Full
Table 4.2 - Simulation model lab3-2 switch IP addressing table
-Lab Vlan
Class Vlan
Class Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
-192.168.1.0
192.168.0.0
192.168.0.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
-3
2
2
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Class21
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
107
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class21 switch IP addressing table
-Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
-192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
-2
2
2
2
2
2
2
2
----------------
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Class22
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
108
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Access port for Vlan 2
Auto
Full
f 0/11
Access port for Vlan 2
Auto
Full
f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class22 switch IP addressing table
-Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
--------------
-192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
--------------
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
--------------
-2
2
2
2
2
2
2
2
2
2
--------------
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
--------------
Network Name
Network
Subnet Mask
VLAN
Switch
Switch name - Staff2
Description
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
109
And Purpose
f 0/1
Trunk port to Switch0
Auto
Full
f 0/2
Access port for Vlan 5
Auto
Full
f 0/3
Access port for Vlan 5
Auto
Full
f 0/4
Access port for Vlan 5
Auto
Full
f 0/5
Access port for Vlan 5
Auto
Full
f 0/6
Access port for Vlan 5
Auto
Full
f 0/7
Access port for Vlan 5
Auto
Full
f 0/8
Access port for Vlan 5
Auto
Full
f 0/9
Access port for Vlan 5
Auto
Full
f 0/10
Access port for Vlan 5
Auto
Full
f 0/11
Access port for Vlan 5
Auto
Full
f 0/12
Access port for Vlan 5
Auto
Full
f 0/13
Access port for Vlan 5
Auto
Full
f 0/14
Access port for Vlan 5
Auto
Full
f 0/15
Access port for Vlan 5
Auto
Full
f 0/16
Access port for Vlan 5
Auto
Full
f 0/17
Access port for Vlan 5
Auto
Full
f 0/18
Access port for Vlan 5
Auto
Full
f 0/19
Access port for Vlan 5
Auto
Full
f 0/20
Access port for Vlan 5
Auto
Full
f 0/21
Access port for Vlan 5
Auto
Full
f 0/22
Access port for Vlan 5
Auto
Full
f 0/23
Access port for Vlan 5
Auto
Full
f 0/24
Access port for Vlan 5
Auto
Full
Table 4.2 - Simulation model Staff2 switch IP addressing table
-Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
-192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
-255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
-5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
port type
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Switch name - Staff2-2
f 0/1
Description
And Purpose
Trunk port to Switch0
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
110
f 0/2
Access port for Vlan 5
Auto
Full
f 0/3
Access port for Vlan 5
Auto
Full
f 0/4
Access port for Vlan 5
Auto
Full
f 0/5
Access port for Vlan 5
Auto
Full
f 0/6
Access port for Vlan 5
Auto
Full
f 0/7
Access port for Vlan 5
Auto
Full
f 0/8
Access port for Vlan 5
Auto
Full
f 0/9
Access port for Vlan 5
Auto
Full
f 0/10
Access port for Vlan 5
Auto
Full
f 0/11
Access port for Vlan 5
Auto
Full
f 0/12
Access port for Vlan 5
Auto
Full
f 0/13
Access port for Vlan 5
Auto
Full
f 0/14
Access port for Vlan 5
Auto
Full
f 0/15
Access port for Vlan 5
Auto
Full
f 0/16
Access port for Vlan 5
Auto
Full
f 0/17
Access port for Vlan 5
Auto
Full
f 0/18
Access port for Vlan 5
Auto
Full
f 0/19
Access port for Vlan 5
Auto
Full
f 0/20
Access port for Vlan 5
Auto
Full
f 0/21
Access port for Vlan 5
Auto
Full
f 0/22
Access port for Vlan 5
Auto
Full
f 0/23
Access port for Vlan 5
Auto
Full
f 0/24
Access port for Vlan 5
Auto
Full
Table 4.2 - Simulation model Staff2-2 switch IP addressing table
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
5
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Switch name - Class31
f 0/1
Description
And Purpose
Trunk port to Switch0
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
111
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class31 switch IP addressing table
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
2
2
2
2
2
2
2
2
----------------
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Switch name - Class32
f 0/1
Description
And Purpose
Trunk port to Switch0
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
112
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class32 switch IP addressing table
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
2
2
2
2
2
2
2
2
----------------
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Switch name - Class33
f 0/1
Description
And Purpose
Trunk port to Switch0
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
113
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class33 switch IP addressing table
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
2
2
2
2
2
2
2
2
----------------
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Switch name - Lab4
f 0/1
Description
And Purpose
Trunk port to Switch0
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
114
f 0/2
Access port for Vlan 3
Auto
Full
f 0/3
Access port for Vlan 3
Auto
Full
f 0/4
Access port for Vlan 3
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Reserved
--f 0/9
Reserved
--f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Lab4 switch IP addressing table
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
------------------
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
------------------
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
------------------
3
3
3
3
3
3
------------------
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
Access
Access
Access
Access
Access
Access
------------------
Switch name - Lab5
f 0/1
Description
And Purpose
Trunk port to Switch0
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
115
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 3
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Access port for Vlan 3
Auto
Full
f 0/21
Access port for Vlan 3
Auto
Full
f 0/22
Access port for Vlan 3
Auto
Full
f 0/23
Access port for Vlan 3
Auto
Full
f 0/24
Reserved
--Table 4.2 - Simulation model Lab5 switch IP addressing table
Class Vlan
Class Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
--
192.168.0.0
192.168.0.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
--
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
--
2
2
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
--
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
--
Switch name - Lab5-2
f 0/1
Description
And Purpose
Trunk port to Switch0
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
116
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 3
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Access port for Vlan 3
Auto
Full
f 0/21
Access port for Vlan 3
Auto
Full
f 0/22
Access port for Vlan 3
Auto
Full
f 0/23
Access port for Vlan 3
Auto
Full
f 0/24
Reserved
--Table 4.2 - Simulation model Lab5-2 switch IP addressing table
Class Vlan
Class Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
--
192.168.0.0
192.168.0.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
--
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
--
2
2
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
--
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
--
Switch name - Staff3
f 0/1
Description
And Purpose
Trunk port to Switch0
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
117
f 0/2
Access port for Vlan 5
Auto
Full
f 0/3
Access port for Vlan 5
Auto
Full
f 0/4
Access port for Vlan 3
Auto
Full
f 0/5
Access port for Vlan 3
Auto
Full
f 0/6
Access port for Vlan 3
Auto
Full
f 0/7
Access port for Vlan 3
Auto
Full
f 0/8
Access port for Vlan 3
Auto
Full
f 0/9
Access port for Vlan 3
Auto
Full
f 0/10
Access port for Vlan 3
Auto
Full
f 0/11
Access port for Vlan 3
Auto
Full
f 0/12
Access port for Vlan 3
Auto
Full
f 0/13
Access port for Vlan 3
Auto
Full
f 0/14
Access port for Vlan 3
Auto
Full
f 0/15
Access port for Vlan 3
Auto
Full
f 0/16
Access port for Vlan 3
Auto
Full
f 0/17
Access port for Vlan 3
Auto
Full
f 0/18
Access port for Vlan 3
Auto
Full
f 0/19
Access port for Vlan 3
Auto
Full
f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Staff3 switch IP addressing table
Staff Vlan
Staff Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
Lab Vlan
------
192.168.3.0
192.168.3.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
192.168.1.0
------
255.255.255.128
255.255.255.128
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
------
5
5
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
3
------
Speed Duplex
Network Name
Network
Subnet Mask
VLAN
Auto
--
--
--
--
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
------
Switch name - Wireless
f 0/1
Description
And Purpose
Trunk port to Switch1
ICT499 CAPSTONE PROJECT REPORT
Full
Switch
port type
Trunk
118
f 0/2
Access port for Vlan 4
Auto
Full
Wireless Vlan
f 0/3
Access port for Vlan 2
Auto
Full
Class Vlan
f 0/4
Reserved
---f 0/5
Reserved
---f 0/6
Reserved
---f 0/7
Reserved
---f 0/8
Reserved
---f 0/9
Reserved
---f 0/10
Reserved
---f 0/11
Reserved
---f 0/12
Reserved
---f 0/13
Reserved
---f 0/14
Reserved
---f 0/15
Reserved
---f 0/16
Reserved
---f 0/17
Reserved
---f 0/18
Reserved
---f 0/19
Reserved
---f 0/20
Reserved
---f 0/21
Reserved
---f 0/22
Reserved
---f 0/23
Reserved
---f 0/24
Reserved
---Table 4.2 - Simulation model Wireless switch IP addressing table
192.168.2.0
192.168.0.0
----------------------
255.255.255.0
255.255.255.0
----------------------
4
2
----------------------
Access
Access
----------------------
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Server1
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
Network Name
119
f 0/1
Trunk port to Switch1
Auto
Full
f 0/2
Access port for Vlan 6
Auto
Full
f 0/3
Access port for Vlan 6
Auto
Full
f 0/4
Access port for Vlan 6
Auto
Full
f 0/5
Access port for Vlan 6
Auto
Full
f 0/6
Access port for Vlan 6
Auto
Full
f 0/7
Reserved
--f 0/8
Reserved
--f 0/9
Reserved
--f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Server1 switch IP addressing table
-Wireless Vlan
Class Vlan
Wireless Vlan
Class Vlan
Wireless Vlan
-------------------
-192.168.3.128
192.168.3.128
192.168.3.128
192.168.3.128
192.168.3.128
-------------------
-255.255.255.224
255.255.255.224
255.255.255.224
255.255.255.224
255.255.255.224
-------------------
-6
6
6
6
6
-------------------
Trunk
Access
Access
Access
Access
Access
-------------------
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Class11
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
120
f 0/1
Trunk port to Switch1
Auto
Full
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class11 switch IP addressing table
-Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
-192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
-2
2
2
2
2
2
2
2
----------------
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Class12
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
121
f 0/1
Trunk port to Switch1
Auto
Full
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class12switch IP addressing table
-Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
-192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
-2
2
2
2
2
2
2
2
----------------
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Staff1
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
122
f 0/1
Trunk port to Switch1
Auto
Full
f 0/2
Access port for Vlan 5
Auto
Full
f 0/3
Access port for Vlan 5
Auto
Full
f 0/4
Access port for Vlan 5
Auto
Full
f 0/5
Access port for Vlan 5
Auto
Full
f 0/6
Access port for Vlan 5
Auto
Full
f 0/7
Access port for Vlan 5
Auto
Full
f 0/8
Reserved
--f 0/9
Reserved
--f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Staff1 switch IP addressing table
-Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
Staff Vlan
------------------
-192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
192.168.3.0
------------------
-255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
255.255.255.128
------------------
-5
5
5
5
5
5
------------------
Trunk
Access
Access
Access
Access
Access
Access
------------------
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Class41
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
123
f 0/1
Trunk port to Switch1
Auto
Full
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class41 switch IP addressing table
-Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
-192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
-2
2
2
2
2
2
2
2
----------------
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Class42
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
124
f 0/1
Trunk port to Switch1
Auto
Full
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class42 switch IP addressing table
-Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
-192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
-2
2
2
2
2
2
2
2
----------------
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Class43
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
125
f 0/1
Trunk port to Switch1
Auto
Full
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Reserved
--f 0/11
Reserved
--f 0/12
Reserved
--f 0/13
Reserved
--f 0/14
Reserved
--f 0/15
Reserved
--f 0/16
Reserved
--f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class43 switch IP addressing table
-Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
----------------
-192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
----------------
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
----------------
-2
2
2
2
2
2
2
2
----------------
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
----------------
Network Name
Network
Subnet Mask
VLAN
Switch
port type
Switch name - Class44
Description
And Purpose
ICT499 CAPSTONE PROJECT REPORT
Speed Duplex
126
f 0/1
Trunk port to Switch1
Auto
Full
f 0/2
Access port for Vlan 2
Auto
Full
f 0/3
Access port for Vlan 2
Auto
Full
f 0/4
Access port for Vlan 2
Auto
Full
f 0/5
Access port for Vlan 2
Auto
Full
f 0/6
Access port for Vlan 2
Auto
Full
f 0/7
Access port for Vlan 2
Auto
Full
f 0/8
Access port for Vlan 2
Auto
Full
f 0/9
Access port for Vlan 2
Auto
Full
f 0/10
Access port for Vlan 2
Auto
Full
f 0/11
Access port for Vlan 2
Auto
Full
f 0/12
Access port for Vlan 2
Auto
Full
f 0/13
Access port for Vlan 2
Auto
Full
f 0/14
Access port for Vlan 2
Auto
Full
f 0/15
Access port for Vlan 4
Auto
Full
f 0/16
Access port for Vlan 4
Auto
Full
f 0/17
Reserved
--f 0/18
Reserved
--f 0/19
Reserved
--f 0/20
Reserved
--f 0/21
Reserved
--f 0/22
Reserved
--f 0/23
Reserved
--f 0/24
Reserved
--Table 4.2 - Simulation model Class44 switch IP addressing table
ICT499 CAPSTONE PROJECT REPORT
-Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Class Vlan
Wireless Vlan
Wireless Vlan
---------
-192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.0.0
192.168.2.0
192.168.2.0
---------
-255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
255.255.255.0
---------
-2
2
2
2
2
2
2
2
2
2
2
2
2
4
4
---------
Trunk
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
Access
---------
127
Appendix C
Simulation Model configuration
Router0 Configuration
version 12.4
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname Router1
!
enable secret 5 $1$mERr$G2PSu4QGw/5shgwTGTGH6/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/0
no ip address
duplex auto
speed auto
shutdown
!
interface FastEthernet0/0.1
encapsulation dot1Q 2
ip address 192.168.0.1 255.255.255.0
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.2
encapsulation dot1Q 3
ip address 192.168.1.1 255.255.255.0
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.3
encapsulation dot1Q 4
ip address 192.168.2.1 255.255.255.0
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.4
encapsulation dot1Q 5
ip address 192.168.3.1 255.255.255.128
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.5
encapsulation dot1Q 6
ip address 192.168.3.129 255.255.255.224
ip helper-address 192.168.3.133
!
ICT499 CAPSTONE PROJECT REPORT
128
interface FastEthernet0/0.6
encapsulation dot1Q 7
ip address 192.168.3.161 255.255.255.224
ip helper-address 192.168.3.133
!
interface Serial0/0/1
bandwidth 64
ip address 10.0.0.1 255.255.255.0
ip access-group 101 out
!
router rip
!
ip classless
ip route 0.0.0.0 0.0.0.0 10.0.0.2
!
access-list 101 permit icmp any any
access-list 101 permit tcp 192.168.1.0 0.0.0.255 any
access-list 101 permit tcp 192.168.2.0 0.0.0.255 any
access-list 101 permit tcp 192.168.3.0 0.0.0.255 any
access-list 101 deny ip any any
access-list 50 permit host 192.168.3.162
!
no cdp run
!
line con 0
exec-timeout 0 0
login local
line vty 0 4
access-class 50 in
login local
transport output telnet
!
end
ICT499 CAPSTONE PROJECT REPORT
129
Router1 Configuration
version 12.4
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname Router1
!
enable secret 5 $1$mERr$G2PSu4QGw/5shgwTGTGH6/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/0
no ip address
duplex auto
speed auto
!
interface FastEthernet0/0.1
encapsulation dot1Q 2
ip address 192.168.0.1 255.255.255.0
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.2
encapsulation dot1Q 3
ip address 192.168.1.1 255.255.255.0
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.3
encapsulation dot1Q 4
ip address 192.168.2.1 255.255.255.0
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.4
encapsulation dot1Q 5
ip address 192.168.3.1 255.255.255.128
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.5
encapsulation dot1Q 6
ip address 192.168.3.129 255.255.255.224
ip helper-address 192.168.3.133
!
interface FastEthernet0/0.6
encapsulation dot1Q 7
ip address 192.168.3.161 255.255.255.224
ip helper-address 192.168.3.133
!
interface Serial0/0/1
ICT499 CAPSTONE PROJECT REPORT
130
bandwidth 64
ip address 172.0.0.1 255.255.255.0
ip access-group 101 out
!
router rip
!
ip classless
ip route 0.0.0.0 0.0.0.0 172.0.0.2
!
access-list 101 permit icmp any any
access-list 101 permit tcp 192.168.1.0 0.0.0.255 any
access-list 101 permit tcp 192.168.2.0 0.0.0.255 any
access-list 101 permit tcp 192.168.3.0 0.0.0.255 any
access-list 101 deny ip any any
access-list 50 permit host 192.168.3.162
!
no cdp run
!
line con 0
exec-timeout 0 0
login local
line vty 0 4
access-class 50 in
login local
transport output telnet
!
end
ICT499 CAPSTONE PROJECT REPORT
131
ISP Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname Router
!
interface FastEthernet0/0
ip address 200.200.1.1 255.255.255.0
duplex auto
speed auto
!
interface Serial2/0
ip address 10.0.0.2 255.255.255.0
!
interface Serial3/0
ip address 172.0.0.2 255.255.255.0
clock rate 64000
!
ip classless
ip route 0.0.0.0 0.0.0.0 172.0.0.1
ip route 0.0.0.0 0.0.0.0 10.0.0.1 20
!
line con 0
line vty 0 4
login
!
end
ICT499 CAPSTONE PROJECT REPORT
132
Switch0 Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname Switch0
!
enable password siyuan
!
username siyuan password 0 siyuan
!
spanning-tree portfast default
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
!
interface FastEthernet0/3
switchport access vlan 3
!
interface FastEthernet0/4
switchport access vlan 3
!
interface FastEthernet0/5
switchport access vlan 3
!
interface FastEthernet0/6
switchport access vlan 2
switchport mode trunk
!
interface FastEthernet0/7
switchport access vlan 2
switchport mode trunk
!
interface FastEthernet0/8
switchport access vlan 5
switchport mode trunk
!
interface FastEthernet0/9
switchport access vlan 2
switchport mode trunk
!
interface FastEthernet0/10
switchport access vlan 2
switchport mode trunk
!
interface FastEthernet0/11
ICT499 CAPSTONE PROJECT REPORT
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switchport access vlan 2
switchport mode trunk
!
interface FastEthernet0/12
switchport access vlan 3
switchport mode trunk
!
interface FastEthernet0/13
switchport access vlan 3
switchport mode trunk
!
interface FastEthernet0/14
switchport access vlan 5
switchport mode trunk
!
interface GigabitEthernet1/1
switchport mode trunk
!
interface Vlan7
ip address 192.168.3.164 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
134
Switch1 Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname Switch1
!
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
!
interface FastEthernet0/3
switchport access vlan 6
switchport mode trunk
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface FastEthernet0/6
switchport access vlan 2
!
interface FastEthernet0/7
switchport access vlan 2
!
interface FastEthernet0/8
switchport access vlan 2
!
interface FastEthernet0/9
switchport access vlan 2
!
interface FastEthernet0/10
switchport access vlan 4
switchport mode trunk
!
interface FastEthernet0/11
switchport access vlan 5
switchport mode trunk
!
interface FastEthernet0/12
switchport access vlan 7
ICT499 CAPSTONE PROJECT REPORT
135
!
interface GigabitEthernet1/1
switchport mode trunk
!
interface Vlan7
ip address 192.168.3.165 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
136
Lab1 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Lab1 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 3
!
interface FastEthernet0/3
switchport access vlan 2
!
Vlan7
ip address 192.168.3.166 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
password siyuan
login local
exec-timeout 0 0
!
line vty 0 4
access-class 50 in
password siyuan
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
137
Lab2 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Lab2 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 3
!
interface FastEthernet0/3
switchport access vlan 2
!
Vlan7
ip address 192.168.3.166 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
password siyuan
login local
exec-timeout 0 0
!
line vty 0 4
access-class 50 in
password siyuan
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
138
Lab3 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Lab3 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 3
!
interface FastEthernet0/3
switchport access vlan 2
!
Vlan7
ip address 192.168.3.166 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
password siyuan
login local
exec-timeout 0 0
!
line vty 0 4
access-class 50 in
password siyuan
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
139
Class21 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 21 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.169 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
140
Class22 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 22 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface FastEthernet0/6
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.170 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
141
Staff2 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Staff 2 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 5
!
interface FastEthernet0/3
switchport access vlan 5
!
interface FastEthernet0/4
switchport access vlan 5
!
interface FastEthernet0/5
switchport access vlan 5
!
interface Vlan7
ip address 192.168.3.171 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
142
Class31 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 31 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface FastEthernet0/6
switchport access vlan 5
!
interface FastEthernet0/7
switchport access vlan 5
!
interface FastEthernet0/8
switchport access vlan 5
!
interface FastEthernet0/9
switchport access vlan 5
!
interface Vlan7
ip address 192.168.3.172 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
ICT499 CAPSTONE PROJECT REPORT
143
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
144
Class32 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 32 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.169 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
145
Class33 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 33 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.169 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
146
Lab4 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Lab 4 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 3
!
interface FastEthernet0/3
switchport access vlan 3
!
interface FastEthernet0/4
switchport access vlan 3
!
interface Vlan7
ip address 192.168.3.175 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
147
Lab5 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Lab 5 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 3
!
interface FastEthernet0/5
switchport access vlan 3
!
interface Vlan7
ip address 192.168.3.176 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
148
Staff3 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Staff 3 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 5
!
interface FastEthernet0/3
switchport access vlan 3
!
interface Vlan7
ip address 192.168.3.177 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
149
Wireless Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Wireless 1 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 4
!
interface FastEthernet0/3
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.185 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
150
Server1 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Server 1 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 6
!
interface FastEthernet0/3
switchport access vlan 6
!
interface FastEthernet0/4
switchport access vlan 6
!
interface FastEthernet0/5
switchport access vlan 6
!
interface FastEthernet0/6
switchport access vlan 6
!
interface Vlan7
ip address 192.168.3.184 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
151
Class11 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 11 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.169 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
152
Class12 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 12 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.169 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
153
Staff1 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Staff 1 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 5
!
interface FastEthernet0/3
switchport access vlan 5
!
interface FastEthernet0/4
switchport access vlan 5
!
interface Vlan7
ip address 192.168.3.182 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
154
Class41 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 41 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.169 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
155
Class42 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 42 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.169 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
156
Class43 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 43 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface Vlan7
ip address 192.168.3.169 255.255.255.224
!
access-list 50 permit host 192.168.3.162
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
157
Class44 Switch Configuration
version 12.2
no service timestamps log datetime msec
no service timestamps debug datetime msec
no service password-encryption
!
hostname "Class 44 Switch"
!
enable secret 5 $1$mERr$MutzkfG9Rb/hsvxae6ATo/
enable password siyuan
!
username siyuan password 0 siyuan
!
interface FastEthernet0/1
switchport mode trunk
!
interface FastEthernet0/2
switchport access vlan 2
!
interface FastEthernet0/3
switchport access vlan 2
!
interface FastEthernet0/4
switchport access vlan 2
!
interface FastEthernet0/5
switchport access vlan 2
!
interface FastEthernet0/6
switchport access vlan 2
!
interface FastEthernet0/7
switchport access vlan 2
!
interface FastEthernet0/8
switchport access vlan 2
!
interface FastEthernet0/9
switchport access vlan 2
!
interface FastEthernet0/10
switchport access vlan 4
!
interface FastEthernet0/11
switchport access vlan 4
!
interface Vlan7
ip address 192.168.3.178 255.255.255.224
!
access-list 50 permit host 192.168.3.162
ICT499 CAPSTONE PROJECT REPORT
158
line con 0
login local
!
line vty 0 4
access-class 50 in
login local
transport output telnet
line vty 5 15
login
!
end
ICT499 CAPSTONE PROJECT REPORT
159
Simulation Model Passwords & WEP Key
Router0



Username - siyuan
password - siyuan
Enable - fyp



Username - siyuan
password - siyuan
Enable - fyp



Username - siyuan
password - siyuan
Enable - siyuan



Username - siyuan
password - siyuan
Enable - siyuan



Username - siyuan
password - siyuan
Enable - siyuan

1234567891
Router1
Switch0
Switch1
All Switches
WEP Key
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Floor Map of simulation model
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Appendix D
ICMP connection between Vlan:
From
To
Result (Pass/Fail)
Vlan 2
Vlan 2
Pass
Vlan 2
Vlan 3
Pass
Vlan 2
Vlan 4
Pass
Vlan 2
Vlan 5
Pass
Vlan 2
Vlan 6
Pass
Vlan 2
Vlan 7
Vlan 3
Vlan 2
Pass
Pass
Vlan 3
Vlan 3
Pass
Vlan 3
Vlan 4
Pass
Vlan 3
Vlan 5
Pass
Vlan 3
Vlan 6
Pass
Vlan 3
Vlan 7
Vlan 4
Vlan 2
Pass
Pass
Vlan 4
Vlan 3
Pass
Vlan 4
Vlan 4
Pass
Vlan 4
Vlan 5
Pass
Vlan 4
Vlan 6
Pass
Vlan 4
Vlan 7
Vlan 5
Vlan 2
Pass
Pass
Vlan 5
Vlan 3
Pass
Vlan 5
Vlan 4
Pass
Vlan 5
Vlan 5
Pass
Vlan 5
Vlan 6
Pass
Vlan 5
Vlan 7
Vlan 6
Vlan 2
Pass
Pass
Vlan 6
Vlan 3
Pass
Vlan 6
Vlan 4
Pass
Vlan 6
Vlan 5
Pass
Vlan 6
Vlan 6
Pass
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Vlan 6
Vlan 7
Vlan 7
Vlan 2
Pass
Pass
Vlan 7
Vlan 3
Pass
Vlan 7
Vlan 4
Pass
Vlan 7
Vlan 5
Pass
Vlan 7
Vlan 6
Pass
Vlan 7
Vlan 7
Pass
DHCP connectivity:
All facilities connected to the network are able to get the dynamic address from the DHCP server.
Result was illustrated using the simulation presentation.
Vlan connectivity to the HTTP server:
From
To
Result (Pass/Fail)
Vlan 2
HTTP
Pass (Not able to access)
Vlan 3
HTTP
Pass
Vlan 4
HTTP
Pass
Vlan 5
HTTP
Pass
Vlan 6
HTTP
Pass (Not able to access)
Vlan 7
HTTP
Pass
Telnet results to all routers and switches from the IT admin PC:
From
To
Result (Pass/Fail)
IT admin PC
Router0
Pass
IT admin PC
Router1
Pass
IT admin PC
Switch0
Pass
IT admin PC
Switch1
Pass
IT admin PC
Lab 1
Pass
IT admin PC
Lab 2
Pass
IT admin PC
Lab 3
Pass
IT admin PC
Class 21
Pass
IT admin PC
Class 22
Pass
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IT admin PC
Staff 2
Pass
IT admin PC
Class 31
Pass
IT admin PC
Class 32
Pass
IT admin PC
Class 33
Pass
IT admin PC
Lab 4
Pass
IT admin PC
Lab 5
Pass
IT admin PC
Staff 3
Pass
IT admin PC
Class 41
Pass
IT admin PC
Class 42
Pass
IT admin PC
Class 43
Pass
IT admin PC
Class 44
Pass
IT admin PC
Class 11
Pass
IT admin PC
Class 12
Pass
IT admin PC
Staff 1
Pass
IT admin PC
Server 1
Pass
IT admin PC
Wireless
Pass
User
To
Result (Pass/Fail)
Staff
FTP
Pass
Student
FTP
Pass
cisco
FTP
Pass
FTP connectivity of users:
Scenario testing in Packet Tracer simulation mode
Scenario
Result (Pass/Fail)
Scenario 0
Pass
Scenario 1
Pass
Scenario 2
Pass
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