Comprehensive TCP/IP Networking Design and Analysis for M2M Solutions

This report presents a comprehensive network design and analysis for M2M Solutions, a company expanding its operations across six different locations in Sydney, Australia. The report begins with an executive summary outlining the need for a robust network to connect approximately 1200 workstations across the company's various departments. Task 1 focuses on network architecture design, including network diagrams, required devices (switches, workstations), and subnet calculation methods to efficiently utilize IP addresses based on the ring topology. The report details the subnetting process for each department, considering the number of workstations and the need for future scalability. Configuration methods for accessing and configuring the network devices are also discussed. Task 2 delves into network analysis, including the use of network analyzers and relevant networking protocols. The report analyzes the advantages of network analysis for M2M Solutions, and potential challenges if the number of hosts increases significantly. The report reasons that static organizing is the better coordinating custom in this situation where divisions are restricted, and it will assist the system controller with impacting the system more to secure adjacent the structure separating contraptions that were prior not permitted to use the authoritative premises.

Running head: TCP/IP NETWORKING
Assignment Number
Assignment Title: TCP/IP Networking
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Executive Summary
M2M Solutions, a medium evaluated company, based in Sydney, Australia is predicting extending its
operations. Likewise, the affiliation has practical expanded six distinct regions of the city to suit its six
working environments. Those are its Finance Office, Head Office, Information Technology, Transport
Office, Research Office and Sales Office. Prior each one of the units was masterminded in a similar
building, yet now in the wake of moving the divisions to new places, it will be required to assemble a
cover arrange all its business exchanges over the working environments. Starting at now, the aggregate
number of workstations being used is around 1200. This report watches out for all the essential strides
to take after to manufacture a structure over those locales where each site will have their sub interface
with surrendering a few spaces for development in some workstations. Also, it is additionally essential
to use the vast majority of the IP territories and squandering the base number of IPs in this philosophy
of the diagram. This report reasons that static organising is the better coordinating custom in this
situation where divisions are restricted, and it will assist the system controller with impacting the system
more to secure adjacent the structure isolating contraptions that were prior not permitted to use the
authoritative premises. In this manner, the report reveals every single one of the approaches to take
after for the use of noteworthy system openness in the association.
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Table of Contents
TASK 1: Network Architecture Designing.....................................................................................................3
1.1 Network Designing...................................................................................................................3
1.1.1 Network Diagram Design..........................................................................................3
1.1.2 Required Devices for the Network............................................................................4
1.1.3 Subnet Calculation Method......................................................................................4
1.1.4 Configuration Method............................................................................................10
1.2 What if host number increases over 1024 per department ?.................................................11
1.2.1 Difficulties...............................................................................................................11
TASK 2: Network Analysis..........................................................................................................................12
2.1 Network Analyser...................................................................................................................12
2.1.1 Network Analysing Processes.................................................................................12
2.1.2 Networking Protocols.............................................................................................13
2.1.3 Situations when Network Analyser helps................................................................17
2.2 Network Analysis of M2M Solution........................................................................................18
2.2.1 Advantages of Network Analysis.............................................................................18
Recommendation.........................................................................................................................19
References.................................................................................................................................................20
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TASK 1: Network Architecture Designing
1.1 Network Designing
It is the most vital thing is to design the system in a virtual space before actualising the structure
if all else fails. It permits getting challenges that may come with the strategy for the utilisation of the
scheme no doubt and gives the space to manage the issue in a test structure to get encounter the
impediments coming (Abed, 2016). To plot the system chart Network Notepad is utilised. It is an
orchestrating instrument for compose design and requires a permit after starting 30 days of trial Use.
Then again, another application that is the Cisco Packet Tracer is utilised replicating the whole structure
and testing the entire arrangement before executing those on the considerable gadgets. It looks the
probabilities heretofore engineering the suitable devices.
1.1.1 Network Diagram Design
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Figure 1: Diagram of the Network
(Source: Created by Author)

4TCP/IP NETWORKING
1.1.2 Required Devices for the Network
• Core Networking Devices: Six switches are set in each of the crates where the divisions are
suited (Cui et al., 2015). Switches are masterminding gadget that transmits information bundles
between PC structures utilising activity arranging limits.
•Workstations: The quantity of workstations utilized is talked about underneath.
• 520 workstations in the Information Technology office
• 260 workstations in the Finance Department
• 130 workstations in the Transport Department
• 120 workstations in the Research Department
• 60 workstations in the Head Office
• 40 workstations in the Sales office
1.1.3 Subnet Calculation Method
The IP address is a unique number doled out to every gadget on the structure. Then again, IP-
tending to construe appropriating IP passes on to every device on the structure. Prior IP addresses were
classful. Those are the class a, b, c, d and e. This method winds up abused piles of IP addresses since IP
addresses were settled in numbers for each class (Duke et al., 2015). Similarly, the need for subnetting
came into the photo. Subnetting segregates single structure IP into different grouped systems. This extra
to use the majority of the IP keeps an eye out for that were prior left surrendered.
The association has the IP Network 10.0.0.0, and it is said to utilise that structure IP to affect all
to the sub organise. As indicated by the format, the structure will utilise the ring topology. In work
topology, the greater part of the focuses is associated with the following and past hub centre point or
focal contraption. For this condition, the switch orchestrated in the head office is the crucial contraption
or switch that is associated with five direct channels with different switches arranged in various working
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environments (Keceli, Inan and Ayanoglu, 2015). In this manner, six rooms and five committed channel
show 11 sub-frameworks are required. The focal methodology in subnetting is to sort the structure as
indicated by the crucial IP addresses in dropping requesting. In this manner in the wake of sorting out IT
office with 520 workstations starts things out, by the back office with 260 workstations come next after
that Transport office with 130 workstations come third, by then Research office with 120 workstations
approach, after that the head office with 60 workstations continue fifth, and the business office comes
last at 6th (Khalifa et al., 2014). Beginning there forward, the five unmistakable correspondence
channels are tallied. The IP address is a 32-bit address, it is confined to parts the hidden segment is the
system part, and the rest is the host part.
The IP address arrangement starts at 00000000.00000000.00000000.00000000 , That is 0.0.0.0
and Moreover, the last IP address is 11111111.11111111.11111111.11111111 That is 255.255.255.255
in Decimal separately. There is an including procedure to choose how much bits to be gotten from the
host part. That is 2n-2. This infers in case you get 2 bits you will get 22-2=2 IP addresses if 3 bits are
obtained you will get 23-2=6 IP addresses.
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Information Technology – 520 workstation
The given IP address is 10.0.0.0 or 00001010.00000000.00000000.00000000 in binary. If we
borrow 9 bits from right then we will get 29-2=512-2=510 IP Addresses and it is not possible to configure
520 workstation using 510 IPs. Therefore, 10 bits are borrowed from the right. Now, the available IPs are
210-2 = 1022
Information Technelogy Department
CIDR/22 Binary Decimal
Network ID 00001010.00000000.000000|00.00000000 10.0.0.0
First Available IP 00001010.00000000.000000|00.00000001 10.0.0.1
Last Available IP 00001010.00000000.000000|11.11111110 10.0.3.254
Broadcast Address 00001010.00000000.000000|11.11111111 10.0.3.255
Here IP addresses from 10.0.0.2/22 to 10.0.2.11/22 are configured into the 520 workstations
while the IP 10.0.0.1/22 is configured as the default gateway for the network into the router.
Finance Department – 260 workstation
The very next IP of the broadcast address of Information Technology will be the network ID for
this network. the available IPs are 29-2 = 510
Finance Department
CIDR/23 Binary Decimal
Network ID 00001010.00000000.0000010|0.00000000 10.0.4.0
First Available IP 00001010.00000000.0000010|0.00000001 10.0.4.1
Last Available IP 00001010.00000000.0000010|1.11111110 10.0.5.254
Broadcast Address 00001010.00000000.0000010|1.11111111 10.0.5.255
Here IP addresses from 10.0.4.2/23 to 10.0.5.5/23 are configured into the 260 workstations
while the IP 10.0.4.1/23 is configured as the default gateway for the network into the router.
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Transport Department – 130 workstation
The very next IP of the broadcast address of Finance Department will be the network ID for this
network. the available IPs are 28-2 = 254
Transport Department
CIDR/24 Binary Decimal
Network ID 00001010.00000000.00000110|.00000000 10.0.6.0
First Available IP 00001010.00000000.00000110|.00000001 10.0.6.1
Last Available IP 00001010.00000000.00000110|.11111110 10.0.6.254
Broadcast Address 00001010.00000000.00000110|.11111111 10.0.6.255
Here IP addresses from 10.0.6.2/24 to 10.0.6.131/24 are configured into the 130 workstations
while the IP 10.0.6.1/24 is configured as the default gateway for the network into the router.
Research Department – 120 workstation
The very next IP of the broadcast address of Transport Department will be the network ID for
this network. the available IPs are 27-2 = 122
Research Department
CIDR/25 Binary Decimal
Network ID 00001010.00000000.00000111.0|0000000 10.0.7.0
First Available IP 00001010.00000000.00000111.0|0000001 10.0.7.1
Last Available IP 00001010.00000000.00000111.0|1111110 10.0.7.126
Broadcast Address 00001010.00000000.00000111.0|1111111 10.0.7.127
Here IP addresses from 10.0.7.2/25 to 10.0.7.121/25 are configured into the 120 workstations
while the IP 10.0.7.1/25 is configured as the default gateway for the network into the router.
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Head Office – 60 workstation
The very next IP of the broadcast address of Research Department will be the network ID for this
network. the available IPs are 26-2 = 62
Head Office
CIDR/26 Binary Decimal
Network ID 00001010.00000000.00000111.10|000000 10.0.7.128
First Available IP 00001010.00000000.00000111.10|000001 10.0.7.129
Last Available IP 00001010.00000000.00000111.10|111110 10.0.7.190
Broadcast Address 00001010.00000000.00000111.10|111111 10.0.7.191
Here IP addresses from 10.0.7.130/26 to 10.0.7.189/26 are configured into the 60 workstations
while the IP 10.0.7.129/26 is configured as the default gateway for the network into the router.
Sales Department – 40 workstation
The very next IP of the broadcast address of Head office will be the network ID for this network.
the available IPs are 26-2 = 62
Sales Department
CIDR/26 Binary Decimal
Network ID 00001010.00000000.00000111.11|000000 10.0.7.19
2
First Available IP 00001010.00000000.00000111.11|000001 10.0.7.19
3
Last Available IP 00001010.00000000.00000111.11|111110 10.0.7.25
4
Broadcast Address 00001010.00000000.00000111.11|111111 10.0.7.25
5
Here IP addresses from 10.0.7.194/26 to 10.0.7.233/26 are configured into the 40 workstations
while the IP 10.0.7.193/26 is configured as the default gateway for the network into the router.
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Router-to-Router Networks
IT Router - Finance Router
CIDR/30 Binary Decimal
Network ID 00001010.00000000.00001000.000000|00 10.0.8.0
IT Router IP 00001010.00000000.00001000.000000|01 10.0.8.1
Finance Router IP 00001010.00000000.00001000.000000|10 10.0.8.2
Broadcast Address 00001010.00000000.00001000.000000|11 10.0.8.3
Finance Router - Transport Router
CIDR/30 Binary Decimal
Network ID 00001010.00000000.00001000.000001|00 10.0.8.4
Finance Router IP 00001010.00000000.00001000.000001|01 10.0.8.5
Transport Router IP 00001010.00000000.00001000.000001|10 10.0.8.6
Broadcast Address 00001010.00000000.00001000.000001|11 10.0.8.7
Transport Router - Research Router
CIDR/30 Binary Decimal
Network ID 00001010.00000000.00001000.000010|00 10.0.8.8
Transport RouterIP 00001010.00000000.00001000.000010|01 10.0.8.9
Research Router IP 00001010.00000000.00001000.000010|10 10.0.8.10
Broadcast Address 00001010.00000000.00001000.000010|11 10.0.8.11
Research Router - HeadOffice Router
CIDR/30 Binary Decimal
Network ID 00001010.00000000.00001000.000011|00 10.0.8.12
Research RouterIP 00001010.00000000.00001000.000011|01 10.0.8.13
HeadOffice Router IP 00001010.00000000.00001000.000011|10 10.0.8.14
Broadcast Address 00001010.00000000.00001000.000011|11 10.0.8.15
HeadOffice Router - Sales Router
CIDR/30 Binary Decimal
Network ID 00001010.00000000.00001000.000100|00 10.0.8.16
HeadOffice Router IP 00001010.00000000.00001000.000100|01 10.0.8.17
Sales Router IP 00001010.00000000.00001000.000100|10 10.0.8.18
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Broadcast Address 00001010.00000000.00001000.000100|11 10.0.8.19
Sales Router - IT Router
CIDR/30 Binary Decimal
Network ID 00001010.00000000.00001000.000101|00 10.0.8.20
Sales Router IP 00001010.00000000.00001000.000101|01 10.0.8.21
IT Router IP 00001010.00000000.00001000.000101|10 10.0.8.22
Broadcast Address 00001010.00000000.00001000.000101|11 10.0.8.23
Finance Router - HeadOffice Router
CIDR/30 Binary Decimal
Network ID 00001010.00000000.00001000.000110|00 10.0.8.24
Finance Router IP 00001010.00000000.00001000.000110|01 10.0.8.25
HeadOffice Router IP 00001010.00000000.00001000.000110|10 10.0.8.26
Broadcast Address 00001010.00000000.00001000.000110|11 10.0.8.27
1.1.4 Configuration Method
There are no show unit or keypad inbuilt on the switches. Subsequently, it is unrealistic to
mastermind the switch have your own. From now on, the switches require interfacing on account of a
PC contraption keeping the
ultimate objective to compose
the same. Immediately, relate
the change to the PC using a
solace interface (Lee et al.,
2014). Starting there, open
terminal programming in the PC
(i.e. Hyper Terminal) and after that have a go at getting to the port in which the switch is related. After
the productive attempt, the charge terminal for the switch will open on the PC screen. There each one
of the setups ought to have been done.
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Figure 3: Accessing router terminal from PC
(Source: Wang, Ren & Li, 2014, pp 886)

11TCP/IP NETWORKING
1.2 What if host number increases over 1024 per department ?
The hosts are being utilised per working beginning at now is most outrageous 520 by
Information Technology division. There are 1022 IPs doled out to IT gather in which 520 IPs are being
utilised (Richards and Petras, 2015). Whatever is left of the workplaces are sub-gotten in a way that a
noteworthy bit of the IPs is utilised moving inconsequential IPs that are misused. Regardless, the present
diagram will in all probability confront dangerous conditions if the quantity of workstations
augmentations to more than 1024. The conceivable occasions are discussed as underneath:
1.2.1 Difficulties
 The in all cases framework will wind up apparently out of expertise for the present framework
chief.
 The frame will end up being more tangled, and it will wind up noticeably extreme to explore if
any breakdown happens.
 The divisions are by and large orchestrated to use static controlling. The augmentation in have
number will impact the head gravely.
 not a lone of the workplace has the available IPs offer to dispense them to those workstations.
 On the off chance that the extra has shape another framework inside the different room, it will
end up being hard to mastermind VLANs to relate those workstations.
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TASK 2: Network Analysis
2.1 Network Analyser
A network analyser (likewise called a packet analyser or protocol analyser) is a mix of equipment
and programming or at times remains only hardware gadgets that can be introduced in a PC or system
to improve insurance against malicious movement (Wang, Ren & Li, 2014). System analysers can
supplement firewalls, anti-infection projects, and spyware recognition programs.
2.1.1 Network Analysing Processes
System analysers are not proposed to supplant firewalls, hostile to virus programs, or spyware
recognition programs. In any case, the utilisation of a network analyser notwithstanding different
countermeasures can limit the probability that an assault will happen, and can encourage rapid
response in the occasion an attack starts (Keceli, Inan & Ayanoglu, 2015). The below mentioned are the
tasks that a network analyser performs:
 Give point by point insights to present and late action on the network.
 Test hostile to malware programs and pinpoint potential vulnerabilities
 Distinguish abnormal levels of system activity.
 Recognize bundle sources or goals.
 Arrange cautions for characterised dangers.
 Look for particular information strings in bundles.
 Monitoring data transfer used as a component of time.
 Do application-particular modules.
 Show all measurements on an easy to understand control board.
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2.1.2 Networking Protocols
Today, TCP/IP is the main protocol that is used to establish the total internet connectivity or the
global connectivity. Therefore, the other protocols that belong to this hierarchy of TCP/IP are the most
used protocols (Wang, Ren & Li, 2014). The TCP/IP model is made of 4 different levels that are
comparably equivalent to the seven layers of OSI model.
Figure 1: Seven layers of the OSI model (on the left) and
Corresponding four layers of the TCP/IP Model (on the right)
(Source: Created by the author)
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2.1.2.1 Protocols on the Network Interface Layer
The Protocols that works on the layer 2 of the OSI model and on the first layer of the TCP/IP
model are:
 ARP: Address Resolution Protocol: Map IP to hardware (e.g. Ethernet) addresses
 PPP: The Point-to-Point Protocol
 PPP-MP: The Point-to-Point Multilink Protocol
 RARP: Reverse ARP: Map hardware (e.g. Ethernet) to IP addresses
 SLIP: Serial Line IP: Transmission of IP data gram over serial lines (RFC 1055), obsolete
2.1.2.2 Protocols on the Network Layer
The Protocols that works on the layer 3 of the OSI model and on the second layer of the TCP/IP
model are:
 AH: Authentication Header
 BGP: Border Gateway Protocol
 DSR: Dynamic Source Routing (Ad-hoc protocol)
 EGP: Exterior Gateway Protocol
 ESP: Encapsulating Security Payload
 GGP: Gateway to Gateway Protocol
 ICMP: Internet Control Message Protocol (version 4): This is a protocol to report common errors
and events in the IP, TCP and UDP protocols.
 ICMPv6: Internet Control Message Protocol (version 6): This is a protocol to report common
errors and events in the IPv6, TCP and UDPprotocols.
 IGMP: IP multicasting
 IGRP: Interior Gateway Routing Protocol
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 IP: Internet Protocol (version 4): transfer IP packets from one host to another. One of the most
common protocols today. This is what the Internet is built around.
 IPv6: Internet Protocol (version 6): transfer IP packets from one host to another
 ND: Neighbour Discovery
 OSPF: Open Shortest Path First
 RIP: Routing Information Protocol
 RIPng: Routing Information Protocol next generation
2.1.2.3 Protocols on the Transport Layer
The Protocols that works on the layer 4 of the OSI model and on the third layer of the TCP/IP
model are:
 DCCP: Datagram Congestion Control Protocol: stream based, reliable, connection oriented
transfer of data
 Port Reference: TCP/UDP port numbers ThTextese protocols run atop UDP, and provide
additional transport-layer services:
 RTCP: RTP's control protocol
 RTP: datagram (packet) based, unreliable, connection oriented transfer of time sensitive data
 SCTP: datagram (packet) based, reliable, connection oriented transfer of data
 TCP: Transmission Control Protocol: stream based, reliable, connection oriented transfer of data
 UDP: User Datagram Protocol: datagram (packet) based, unreliable, connectionless transfer of
data
 UDP-Lite: Lightweight User Datagram Protocol: datagram (packet) based, unreliable,
connectionless transfer of data
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2.1.2.4 Protocols on the Application Layer
The Protocols that works on the layer 5,6 and 7 of the OSI model and on the fourth layer of the
TCP/IP model are:
 BOOTP: BOOT Protocol: antecessor of DHCP, see bellow
 DCE/RPC: Remote procedure calls using the OSF's RPC mechanism
 DHCP: Dynamic Host Configuration Protocol: distribute IP, Gateway and DNS server addresses
and alike
 DNS: Domain Name System: translate human readable addresses (e.g. wiki.wireshark.org)
into IP addresses
 FTP: File Transfer Protocol: file transfer (unsecure)
 HTTP: Hyper Text Transfer Protocol: (and other files as well). Probably the best known protocol
as it is used to allow users surfing on the Internet.
 IMAP: retrieve mails from a mail server
 MIME: content encoding (for HTTP, SMTP, ...) (RFC 2045-2049)
 NetBIOS: an API and several protocols providing various networking services.
 POP: Post Office Protocol: receive mails from a mail server
 RLogin: remote login: remote shell access (unsecure)
 RSH: Remote SHell: remote shell access (unsecure)
 SASP: Server/Application State Protocol (RFC 4678)
 SMTP: Simple Mail Transfer Protocol: send mails to a mail server
 SSH: Secure SHell: encrypted remote shell access
 Telnet: remote shell access (unsecure) (RFC 854,855,1700)
 TFTP: Trivial File Transfer
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2.1.3 Situations when Network Analyser helps
The computer system or any digital devices are always prone to risk and vulnerabilities because
of the matter of fact that there is always an area of development remains in the system for
advancement. Some of the risks and their solutions are discussed below:
 Evaluate the dangers. The different vulnerabilities on your system speak to potential expenses
— time, cash and resources — to your library. These costs, alongside the shot somebody, will
misuse these vulnerabilities, help decide the level of hazard included. Hazard evaluation is a
blend of both measuring the cost of the risk and qualifying the chances of the assault ( Wang,
Ren & Li, 2014). Every library should decide its particular resilience for hazard contingent upon
the circumstance. A few cases are given here.
 Supporter data: Having your benefactor information traded off is unsatisfactory for any library.
You would need to plan your system and execute security to limit this hazard. While you can
never expel hazard entirely, you can decrease risk to low levels.
 Moderate Internet association: A library shares an Internet connection between open systems
and staff systems. Since the cost of including another Internet connection, expanding the speed
of the present association or acquiring complex system observing hardware may be excessively
restrictive, the library has a higher resilience for an occasionally moderate Internet Association
(Wang, Ren & Li, 2014). Another library has its particular Web web page, online inventory and
email server, which requires a more steady Internet association, so a much lower resistance for
this hazard exists.
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2.2 Network Analysis of M2M Solution
The relationship earlier did not allow sort out exploring. The reason was about its data security
and the arrangement of the data. Regardless, when diverged from past circumstance when each one of
the workplaces was at a comparable place, there was less contrast in the outer hazard that is as of now
extended immensely in light of particularly arranging all through the city (Richards and Petras, 2015).
The more the framework built up, the more it is nearer to outside threats. An erratic frame arranges for
that needs various security levels is reliably vulnerable; if at any unapproved rate customer gets to the
framework, there is no real way to perceive that hazard. By and by, the affiliation is arranged in six
remarkable reaches that are related to its particular framework. On the off chance that any one region
was hacked or any developer obstructs the signs on the midway that may hurt the assurance of many
gatherings. In this way, compose separating gadgets are frantically required consequently. The logical
examination in like manner suggests its noteworthiness in the affiliation.
2.2.1 Advantages of Network Analysis
 Cost Reduction: The devices enabling IPs is in its advancement. A framework checking structure
gives full framework equipment to utilize sorting out assets at proper arranging that enhances
the running cost of the framework.
 Execution Report: The perfect asset utilization achieves advantage level understandings that
record the execution reports.
 Hazard Reduction: The ceaseless checking of topologies, port affiliations and frameworks
organization traditions action lessens the hazard.
 System Optimization: The availability of framework arrange interfaces two terminations reliably.
Headway of the plan will decrease inconsequential framework action that will definitely increase
the execution of the framework.
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Cost of the Tool
The framework analyser instrument comes as an individual gear that must be presented on the
system gateway. It will check all the movement, and a while later after affirmation, those will be allowed
(Richards and Petras, 2015). Wireshark is a particularly prominent name in the field of framework
examination it comes free with some limited segments. Regardless, it can be climbed to its choice shape
that charges around $600 for an allow for one year that incorporates some valuable components.
Ease of usability
Wireshark installer comes free, and it can be downloaded from
https://www.wireshark.org/download.html. In the wake of downloading and presenting Wireshark once
it starts running, it will exhibit a summary of interfaces that you have to screen. Select your favoured
interface from your once-over from a broad assortment of remote to Ethernet. By and by picking your
decision, it will outfit you with the other option to get the channel where you will see the framework
action log that can be productively checked. There the inconspicuous port components, traditions name
will be made to impact you to grasp what those stands for.
Recommendation
The wrongdoings on the framework are extending well ordered. The current ransomware event
that happens where software engineers broke the firewalls of Honda's branch and prevented their
system asking for payoff subsequently to unblock the structure. It is to be recommended to use
Wireshark application because of its primary approach towards its customer with a basic User Interface
it advances toward getting to be for straightforward. In any case, the security counts used as a piece of
this field requires changes given the deformity that remaining parts in the system. It is as yet powerless
against threats.
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References
Abed, G. (2016). Principles of Congestion Control for Transmission Control Protocol. Scholars Press.
Cui, Y., Wang, L., Wang, X., Wang, H., & Wang, Y. (2015). FMTCP: A fountain code-based multipath
transmission control protocol. IEEE/ACM Transactions on Networking (TON), 23(2), 465-478.
Duke, M., Blanton, E., Zimmermann, A., Braden, R., & Eddy, W. (2015). A roadmap for transmission
control protocol (TCP) specification documents.
Keceli, F., Inan, I., & Ayanoglu, E. (2015). Fair and efficient Transmission Control Protocol access in the
IEEE 802.11 infrastructure basic service set. Wireless Communications and Mobile
Computing, 15(9), 1376-1390.
Khalifa, T., Abdrabou, A., Naik, K., Alsabaan, M., Nayak, A., & Goel, N. (2014). Split-and aggregated-
transmission control protocol (SA-TCP) for smart power grid. IEEE Transactions on Smart
Grid, 5(1), 381-391.
Lee, K. C., Balasubramanian, S., Wang, J., & Cherian, G. (2014). U.S. Patent No. 8,780,858. Washington,
DC: U.S. Patent and Trademark Office.
Richards, C., & Petras, M. W. (2015). U.S. Patent Application No. 14/423,797.
Wang, G., Ren, Y., & Li, J. (2014). An effective approach to alleviating the challenges of transmission
control protocol. IET Communications, 8(6), 860-869.
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