Energy Harvesting in Wireless Communication

This assignment delves into the concept of energy harvesting within the context of wireless communication networks. It examines the theoretical limits and practical challenges of information and energy transfer at both the physical and information layers. The discussion encompasses scheduling policies, medium access control protocols, and the future possibilities of integrating energy harvesting for enhanced network performance.

Running head: WiMAX NETWORKS
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Name of the Student
Name of the University

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Table of Contents
1. Comparing and Contrasting Data Encryption standards for WiMAX.........................................2
2. Security challenges faced by WAPN technology........................................................................2
3. Paper Review: Energy Harvesting...............................................................................................4
References........................................................................................................................................5

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1. Comparing and Contrasting Data Encryption standards for WiMAX
WiMAX or Worldwide Interoperability for Microwave Access is a union of the
organizations developing and manufacturing wireless gadgets for the improvement of IEEE
802.16 standards for networks like the Broadband Wireless Access (BWA). WiMAX is a 4G
networking system and has Wireless Wide Area network (WAN) which covers the area as same
as DSL lines (Ahmad & Ismail, 2016). Wires 3DES (Data Encryption Standard) and AES
(Advanced Encryption Standard) are used by the WiMAX for the encryption of data transferred
on the network system. Three different keys have been used by this 3DES for data encryption.
Each data length is about 56 bit. The encryption keys of 128-bit, 192-bits and 256-bits are
generally supported by the AES. AES has been denoted as a very popular algorithm that has
been built from CCMP. 3DES has a much slower process of encryption than AES. Advanced
Encryption standard thus has much easier process to implement by using less memory. Though,
AES does not need dedicated processors on the board such as the BS. But there is also a risk of
AES for not being used by every end-user terminals. At first this helps in considering the fact
that the 3DES may remain an important encryption tool over the WiMAX network, even in the
presence of AES (Bahl, Sharma & Verma 2012).
2. Security challenges faced by WAPN technology
There are several kinds of WAPN technologies that has been implemented over the
network, but two most commonly used WAPN technologies are the Bluetooth and the ZigBee
network. Both of these technologies face similar difficulty, as the security issues has been faced
by the wireless technology.
Security challenges faced by Bluetooth technology are listed below:

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 Eavesdropping: In this process the attacker is able to sniff the air of the transmission
taken place by the Bluetooth and thus exploits the right vulnerability, reads or listens to
the information (Dadhich, Narang & Yadav, 2012).
 Bluesnarfing: In this process the attacker can pair to another device and once the device
has been paired, accessibility gets easy so thus stealing of data from the Bluetooth device.
 Blue bugging: In this an attacker generally gets the easier access of the remote control of
various aspects of the user’s device. Thus sending of messages, outgoing calls and texts,
settings change and watching of key presses and screens and many other things must be
avoided (Rewagad & Pawar, 2013).
 Denial of service: DoS is a common data breaching process that puts a barrier between
the data and the users, and thus demands for money or unauthorized order to the user for
getting back the accessibility of their data. Blocking the communication, draining the
battery of the device or even crashing the devices is some of the common deeds of DoS
attacker.
Security challenges faced by ZigBee technology are listed below (Ramsey, Mullins &
White, 2012):
 Sniffing: There is a tendency of the attackers to sniff the improper encryption used in the
network system and attack the information of the network.
 Replay attack: In this the attacker record the approved traffic on the network and plays it
later in a malicious effect.
 Physical Attacks: The attackers locate the device interference of ZigBee. Hard coded
encryption keys which are loaded in the RAM are often employed by radios operating.
The devices in the network are disturbed and flashed so there remains a possibility of

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replacing the keys becomes less and having known the issues the attackers can set up
special serial interfaces in order to intercept the encryption key in the ZigBee device
when the power rises from flash to RAM (Rawat & Bhattacharya, 2016).
3. Paper Review: Energy Harvesting
I. Faisal Karim, and Sherali Zeadally. "Energy harvesting in wireless sensor networks: A
comprehensive review." Renewable and Sustainable Energy Reviews 55 (2016): 1041-
1054.
This article discusses about the energy harvesting techniques used in daily lives.
Harvesting of energy is one of the emerging technology related to applications on indoor and
outdoor environment. The demands for energy harvesting as increasing with the advancement of
microelectronics and MEMS. Focusing on the classifications of the schemes used on energy
harvesting techniques in WSNs. Explained that Major reason for deploying energy harvesting
technique is due to the major problem faced by WSN regarding energy.
II. Ulukus, Sennur, et al. "Energy harvesting wireless communications: A review of
recent advances." IEEE Journal on Selected Areas in Communications 33.3 (2015):
360-381. 4.
This article summarizes the application of energy harvesting in a broad area of wireless
communication network, covering a variety of topics which includes the information-
theoretical and physical layer of performance limit to the scheduling policies and medium
access control protocol. Discussion of the energy and information transfer provides exciting
possibilities that can be adapted in the future to adapt the network operations with improved
performance.

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4. Case study
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Slide 7:
Netbooks are very difficult to repair upgrade or modify. They have a closed and
integrated design. In netbooks storage drives and RAM are usually the things which someone
wants to modify. It is almost impossible for someone to replace the CPU, graphics chip or the
motherboard. Repairing requires professional equipment's and tools or a hired professional
technician. Netbook configurations are limited.

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Slide 8:
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Slide 10:
• Most of the cell phones has the ability to perform tasks that a computer can as well.
Accessibility of the internet writing the emails and sending documents from anywhere
possible. Thus this allows people to be on top of time sensitive issues.
• Usage of a cell phone in the business allows for increasing flexibility while working this
has numerous benefits. More flexile the organization greater is the chance to display the
superiority of the business.
• Employees representing the company may need to keep continuous contact with the
company when they are on road.
There are many advanced devices which help the employees a lot in considerable situations.

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Slide 11:

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References
Ahmad, R., & Ismail, W. (2016). Performance Comparison of Advanced Encryption Standard-
128 Algorithms for WIMAX Application with Improved Power-Throughput. Journal of
Engineering Science and Technology, 11(12), 1-17.
Bahl, N., Sharma, A. K., & Verma, H. K. (2012). On Denial of Service Attacks for Wireless
Sensor Networks. SYSTEM, 17, 18.
Dadhich, R., Narang, G., & Yadav, D. M. (2012). Analysis and Literature Review of IEEE
802.16 e (Mobile WiMAX) Security. International Journal of Engineering and Advanced
Technology, 1, 167-173.
Ramsey, B. W., Mullins, B. E., & White, E. D. (2012, October). Improved tools for indoor
ZigBee warwalking. In Local Computer Networks Workshops (LCN Workshops), 2012
IEEE 37th Conference on (pp. 921-924). IEEE.
Rawat, D. B., & Bhattacharya, S. (2016). Wireless Body Area Network for Healthcare
Applications. In Advanced Methods for Complex Network Analysis (pp. 343-358). IGI
Global.
Rewagad, P., & Pawar, Y. (2013, April). Use of digital signature with diffie hellman key
exchange and AES encryption algorithm to enhance data security in cloud computing.
In Communication Systems and Network Technologies (CSNT), 2013 International
Conference on (pp. 437-439). IEEE.

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