An analytical channel model for emerging wireless Networks-on-Chip

Opoku Agyeman, M., Vien, Q.-T. and Mak, T. (2016) An analytical channel model for emerging wireless Networks-on-Chip. In: IEEE/IFIP International Conference on Embedded and Ubiquitous Computing (EUC 2016). France: IEEE Computer Society. (Accepted)

Abstract
Recently wireless Networks-on-Chip (WiNoCs) have been proposed to overcome the scalability and performance limitations of traditional multi-hop wired NoC architectures. However, the adaptation of wireless technology for on-chip communication is still in its infancy. Consequently, several challenges such as simulation and design tools that consider the technological constraints imposed by the wireless channel are yet to be addressed. To this end, in this paper, we propose and efficient channel model for WiNoCs which takes into account practical issues and constraints of the propagation medium, such as transmission frequency, operating temperature, ambient pressure and distance between the on-chip antennas. The proposed channel model demonstrates that total path loss of the wireless channel in WiNoCs suffers from not only dielectric propagation loss (DPL) but also molecular absorption attenuation (MAA) which reduces the reliability of the system.

To read more go to An analytical channel model for emerging wireless Networks-on-Chip


If you'd like to find out more about Computing at the University of Northampton go to: www.computing.northampton.ac.uk. All views and opinions are the author's and do not necessarily reflected those of any organisation they are associated with

Embedding Computer Forensics within an Undergraduate Programme

An paper on teaching computer forensics was recent published at 7th Annual Teaching Computer Forensics Workshop University of Sunderland on the 10^th Nov 2011.


An Embedded Pedagogic Model for Computer Forensics within an
Undergraduate Programme
Authors: Ali Al-Sherbaz , Amir Minai, James Xue, Rashmi Dravid , The University of Northampton


Abstract
The discipline of computer forensics which has a strong mutli-disciplinary background derives from the computing subjects in networking, programming, security and mathematics. Increasing awareness of cybersecurity and emphasising the need for a common vision among students addresses the challenges. The proposed pedagogic model is to embed the computer forensics materials within the undergraduate modules to extend students’ knowledge and skills in a practical context. However, it is also recognised that the depth of knowledge required learning such topics as cyber security should be offered from the underlying principles to their abstraction.


Cyber crimes are on the rise however, Cyber security professionals are in a depressingly low numbers. The lack of focus on this area has certainly resulted in a limited number of experts. Today, there is a demanding need to create new cyber security jobs, which should hopefully bring leverage to the uncontrollable rise of cyber crimes. It is, therefore, necessary to develop the analytical skills which create challenges in building a constructive approach to learning. Also, reflecting the technological fluctuations, it is seen as essential for students to be continuously updated.


The proposed model focuses on the delivery and assessment of certain computing modules, with an evaluation of its efficiency on the use of time and effort in order to satisfy the minimum requirements of the curriculum. The study has also discovered that some of the modules already cover part of computer forensics implicitly. Therefore, highlighting these topics to the students and making them more visible as computer forensics is one of the main objectives. Another objective is to enhance the existing computing modules by dedicating certain amount of lecture time on computer forensic related concepts. The model can then be adopted by Universities when considering developing new modules.


Over  the  last  few  years  there  have  been  large  increases  in  cyber-crimes  which  have  threatened individuals and organisations. To reduce the threat it is imperative that the computing courses within universities increase the level of student awareness by providing them with professional education in computer forensics and cyber-security without the need to create a separate specialised pathway.

For more information contact: Dr Ali Al-Sherbaz (ali.al-sherbaz@northampton.ac.uk)

Computing Courses

BSc and HND Computing Provision (click on the links below for more details of the courses)

• BEng/MEng Computing (Computer Networks Engineering)
• BEng/MEng Computing (Computer Systems Engineering) 

• BSc (Hons) Computing (also available part-time)
• BSc (Hons) Computing (Graphics and Visualisation)
• BSc (Hons) Computing (Internet Technology and Security)
• BSc (Hons) Computing (Mobile Computing)
• BSc (Hons) Computing (Software Engineering)
• BSc (Hons) Computing - One Year Top-Up 
• BSc  Computer Games Development
• HND Computing (Compute​r Net​works Engineering)
• HND Computing (Computer Systems Engineering)
• HND Computing (Graphics and Visualisation)
• HND Computing (Internet Tech​nolog​y and Security)
• HND Computing (Mobile Computing)
• HND Computing (Software Engine​ering) 
• HND Com​puting

The University of Northampton's, Department of Computing and Immersive Technologies offers five courses within the MSc Computing postgraduate provision (shown below) all available either part-time or full-time. 

• MSc Computing
• MSc Computing (Internet Technology and Security)
• MSc Computing (Computer Networks Engineering)
• MSc Computing (Software Engineering)
• MSc Computing (Immersive Technologies)

The contents are the opinion of the author(s) and not necessarily the view of the University of Northampton.