MSc in Internet and Wireless Computing

Transcription

1 2012 MSc in Internet and Wireless Computing PROGRAMME SPECIFICATION This document describes the aims and the module details of the Masters in Internet and Wireless Computing (IWC) in the Department of Electronics at the University of York U.K. 0 Electronics Department University of York 25/11/2011

2 CONTENTS 2 Course Aims and Specification 3 Diagrammatic Module Structure 4 Learning Outcomes Knowledge and Understanding 5 Learning Outcomes Discipline-related Skills 6 Learning Outcomes Transferable Skills 7 Special Experiences on this programme 8 Characteristics of MSc students (from Quality Assurance framework) 8 Requirements for an Award from York 8 Information about Assessment and Feedback 9 Table of Modules 10 University Quality and Standards 1

3 UNIVERSITY OF YORK POSTGRADUATE PROGRAMME SPECIFICATION This document applies to students who commence the following programme: Awarding & Teaching institution: University of York Department: Electronics MSc in Internet and Wireless Computing Award and programme title: Level of qualification: Level 7 (Masters) Awards available only as interim awards: Postgraduate Diploma in Internet and Wireless Computing (exit point only for 120cu) Postgraduate Certificate in Electronics (exit point only for 60cu) Admissions criteria Applicants are expected to hold an appropriate honours degree with at least second class honours or the equivalent from a university recognised by the University of York. This degree should have a significant electronics and/or computing content. For non-english native speakers English language skills at the standard university requirement of at least IELTS 6.0 or the equivalent are expected. Length and status of the programme and mode of study Programme Length (years) Start dates/months Mode and status (fulltime/part-time) campus-based learning Face-to-face, Distance Other MSc in Internet and Wireless Computing 1 year full-time October Yes No N/A Language of study: English Programme accreditation by Professional, Statutory or Regulatory Bodies IET (Institute of Engineering Technology) Educational aims of the programme For the Masters, Diploma and Certificate: The programme aims to provide a broad-based introduction to the integration of modern computing and communications systems suitable for students with a bachelor s degree in electronics, computer science or an allied subject, and to provide a solid grounding in theory and techniques suitable for students wishing to pursue a career or higher research degree in internet and mobile computing. Additionally for the Masters: There is a major Independent Study Module in the form of a Group Project, enabling students to obtain realistic technical experience, and develop interpersonal skills, much in the way that this development is undertaken in industry. 2

4 Diagrammatic representation of the programme structure, showing the distribution and credit value of core and option modules MSc Internet and Wireless Computing Autumn Spring Summer Vacation Mobile Communication (10: L6) Computer Networks & Operating (10) Pervasive Computing (10) MSc Project (60) Communication Protocols (10) Network Security (10) Multimedia Applications (10) Java Programming (10) Further Internet Protocols (10) Embedded Computer (10) DSP Architectures (10:L6) Corporate Governance & HR Management (10) Project Skills: Introduction to Project Management (5) Introduction to MATLAB (5) Project Preparation & Initial Work Explanatory Notes: Teaching takes place as follows: (Autumn Term : weeks 2-10, Spring Term : weeks 2-10, Summer Term: weeks 1-7) The numbers in brackets (5) (10) (60) show the Credit Units (cu) that each module is worth. A Credit Unit represents 10 hours of work, usually split between teaching (lectures, seminars), practical work (laboratories, workshops), assessment (exams, preparation, continuous assessment) and private study. (10:L6) shows that a 10 Credit Unit module is shared with Level 6 (third year) undergraduate students. Such modules cover relevant material, but their assessment is pass/fail only. All modules must be passed in order to achieve the award. 3

5 Intended learning outcomes for the programme and how the programme enables students to achieve and demonstrate the intended learning outcomes A: Knowledge and understanding After having successfully completing this programme, students will have a solid knowledge of, and developed skills in, the theory, design and implementation of Internet and Wireless Computing. This knowledge and related skills will provide students with appropriate grounding for careers in the computing and communications industry and/or research. Most teaching will be undertaken through conventional lectures, laboratory sessions and workshops, and will be assessed through closed-book examinations and a variety of continuous assessments. Knowledge & Understanding Operation of the Internet. Principles and operation of the major protocols in use in the Internet, and an introduction to how these protocols work together. Concepts of software design and the techniques of computer programming. Study of Java programming language to allow for the understanding of basic object-oriented programming principles. Real-time systems definition, design and characterisation. Fault-tolerant design. Real-world case examples. Instruction pipelines. Memory systems. CPU architecture. History of cellular communications, and the development of first, second, third and fourth generation standards. Network capacity & operation. Multiple access techniques. Traffic modelling. Telecoms standards. Introduction to MATLAB, and its large number of built-in functions. Use of MATLAB to solve engineering problems. Module Communication Protocols Java Programming Embedded Computer Mobile Communication Introduction to MATLAB Delivery & Assessment Lectures, Workshops. Closedbook Lectures, Computer Laboratories. Programming Exercise. Lectures, Practicals, Workshops. Continuous assessment. Lectures, Workshops. Closedbook Practicals. Continuous assessment. Types of project. Role of project manager. Project life-cycles. Tools and techniques for project management. Quality Assurance. Engineering Ethics. Characteristics, functioning and limitations of a number of prominent computer operating systems for both conventional and Internet and mobile computing devices. Different networks and their security needs. Types of threat. Network security tools and policies. Major issues facing the current and future Internet. TCP congestion control and router congestion, including queueing theory in routers Processes used to develop new products, including: product creation; intellectual property; company structures; mission statements & strategic management. Advanced digital signal processing designs, with particular emphasis on processor-based architectures. Custom circuit design on FPGA & microprocessor. Underlying techniques and practical digital processing of video and audio signals for multimedia systems, including compression, simulation and implementation. Introduction to Project Management & QA Computer Networks & Operating Network Security Further Internet Protocols Corporate Governance & HR Management DSP Architectures Multimedia Applications Lectures. Continuous assessment. Lectures, Practicals & Workshops. Coursework & Presentation. Lectures & Workshops. Critical literature review. Lectures, Workshops. Closedbook Lectures. Produce a business plan. Lectures & Computer Practicals. Continuous Assessment. Lectures & Computer Practicals. Continuous Assessment. 4

6 Pervasive (or Ubiquitous) Computing, based on a background overview of Human Computer Interaction and current research trends. Pervasive Computing Lectures. Research report. B: (i) Skills: Discipline-related A number of the modules will provide skills specific to the Internet and mobile communications notable examples are Java Programming, Introduction to MATLAB, Introduction to Project Management and QA, Pervasive Computing, and Computer Networks and Operating. These enable students to design and implement software and hardware devices to industry standards, paying special regard to quality assurance and other professional requirements. The laboratories will also enable students to develop skills in the underlying technologies. Discipline-related Skills Module Delivery & Assessment Use of Internet Protocols Communication Protocols Computer Laboratories. Closedbook Programming: assignment including design, implementation and testing, carried out during laboratories. Design of instruction pipeline & cache memories. Comparison & characterisation of different telecoms techniques. Use of MATLAB to carry out simulations, write scripts and solve engineering problems. Analyse a project & produce specification. Work breakdowns. Critical path analysis & risk. Demonstrate understanding of distributed computing environments and the need for security. Ability to assess threats to a variety of networks, and how to counter them. Java Programming Embedded Computer Mobile Communication Introduction to MATLAB Introduction to Project Management & QA Computer Networks & Operating Network Security Computer Laboratories. Programming Exercise. Computing Practicals, Continuous assessment. Workshops. Closed-book Computer Laboratories. Continuous assessment. Individual project plan and analysis. Report assessed. Practicals & Workshops. Coursework & Presentation. Lectures & Workshops. Critical literature review. Calculation of the performance of queuing systems. Further Internet Protocols Lectures, Workshops. Closedbook Consider future vision of technology industry. Explore IP protection. Develop business plan. FPGA & microprocessor design & debugging. JTAG interface. Consider future of user interfaces and portable computing. Research a topic for paper & talk. Implement and test a significant element of an audio or video compression system. Corporate Governance & HR Management DSP Architectures Pervasive Computing Multimedia Applications Lectures. Produce a business plan. Lectures & Computer Practicals. Lab reports and Design Project. Lectures. Conference paper writing & presentation. Lectures & Practicals. Design & test project. 5

7 Investigation of a specified problem in Internet or Mobile Computing. MSc Project Tender presentation & report. Final report. Viva Performance review. B: (ii) Skills: Transferable multinational companies. The 60 credit unit Group project provides an excellent opportunity to gain experience working in a group, much in the way development is undertaken in industry. Groups of several students working together in a coordinated environment are often considered an ideal way in which software and hardware integrated systems can be developed. In addition to attaining technical experience, experience in interpersonal skills is also gained. Our experience with students on all our taught MScs has demonstrated how much students can benefit from this aspect of the programme, especially if they have aspirations to work in Transferable skills of project management, presentation and technical writing are taught as part of the Group project. In addition to skills developed through academic programmes, the University s York Award can help students to plan and reflect on their experience and gain certification for many extracurricular activities. Transferable Skills Module(s) Delivery & Assessment Group working. Interpersonal skills. Time management. Delegation & risk management. Placing individual work in a larger context, as in real-life companies. MSc Project Tender presentation & report. Final report. Viva Performance review. Capturing customer requirements and forming requirement specifications; work breakdown structures; activity matrices; project plan preparation; project charting techniques, Bar Chart, Gantt charts and PERT; critical path analysis; project management techniques, value added; risk management; and ethics. Design and implement simple programs. Test software solutions to practical problems against target specifications. Implementing a mathematical algorithm in an industry standard computer modelling package. Introduction to Project Management & QA Introduction to MATLAB Multimedia Applications Individual project plan and analysis. Report assessed. Computer Laboratories. Programming Exercises. Design & test project. Research skills, identifying good sources of information and summarising complex ideas. Further Internet Protocols Preparation for Examination. 6

8 C: Experiences of the MSc in Internet and Wireless Computing Students on the MSc in Internet and Wireless Computing benefit from a wide-ranging programme covering the most important subjects in wired and wireless computing, focusing on the rapidly advancing integration of mobile and miniature computing platforms that utilise ever-proliferating wireless networks. The impact on the consumer market is widespread with devices such as third generation mobile phones, car navigation systems, PDAs and BlackBerry handheld computers. Such devices are becoming pervasive and will extend to the embedding of computer systems in many everyday objects, including consumer goods and personal health and entertainment systems Students gain experience with industry-standard software tools in laboratory sessions, and participate in a group project designed to simulate a typical experience in industry. To support this project, they receive training in planning team projects, assigning roles, preparing agendas, chairing meetings and taking minutes, and managing a small team. Modules are taught by internationally leading experts in their fields, with the teaching quality widely praised by students. Student Profile 1: Experience of the Course - Sowmya Mony Sowmya completed her Undergraduate in Computer Science and spent 2 years in the Software Industry. She writes here of her experience at York on the MSc in Internet and Wireless Computing. "The MSc in Internet and Wireless Computing (IWC) is a balanced fusion of hardware and software courses which includes Internet Protocols, Software Engineering, FPGA Skills Acquisition and Processor Designing. My aspiration was to learn more about Internet working and Network Security that made me choose the course. The Department of Electronics providing this course is situated amidst a beautiful lake which has always been a replenishment during tiring days. The University provides amazing study environment, volunteering opportunities, job fairs for career focus and also sports and society activities. The lectures and laboratories are well organized and help us learn new things during each session. The faculty are so helpful in making us understand the concepts by emphasizing basics of the courses. I would say, it is definitely a great experience studying in the University of York." Student Profile 2: Lab work and course variety - Yujia Wang "I got my first master degree in computer science. As I wanted to do a second master on both hardware and software, I firstly contacted many universities. What surprised me most was the quick response and helpful advice from the academics in the University of York. That is why York was the only university I applied for. The courses in IWC are organized really well. You will have lab work in over half of the courses (e.g.: FPGA, DSP, Matlab, Java, C, IP and OS ) that allows every student to gain lots of helpful experience for the future. In addition, to work within a group for several courses and the final project makes me feel like we are in real industry. We start a project from the very beginning to the end, with separate roles like a company, tender presentation at the beginning, writing all reports (QA, tender, design and etc) involved, designing and implementing applications, considering the market and presentation at the end. Excellent study environment, nice and helpful staff, sufficient advanced facilities, really beautiful and safe city, perfectly-organized modules, if you hold many offers in your hand including the University of York, do not hesitate and make it your first choice. The University of York will never let you down. Just come and enjoy every second here." 7

9 Relevant Quality Assurance Agency benchmark statement and other relevant external reference points Here we summarise the main characteristics of MSc students, taken from: Framework for Higher Education Qualifications in England, Wales and Northern Ireland August 2008 QAA Subject Benchmark Statements on Engineering (2006) MSc students will be able to: deal with complex issues both systematically and creatively, make sound judgements in the absence of complete data, and communicate their conclusions clearly to specialist and nonspecialist audiences demonstrate self-direction and originality in tackling and solving problems, and act autonomously in planning and implementing tasks at a professional or equivalent level continue to advance their knowledge and understanding, and to develop new skills to a high level. And will have the qualities and transferable skills necessary for employment requiring: the exercise of initiative and personal responsibility decision-making in complex and unpredictable situations the independent learning ability required for continuing professional development. University award regulations To be eligible for an award of the University of York a student must undertake an approved programme of study, obtain a specified number of credits (at a specified level(s)), and meet any other requirements of the award as specified in the award requirements and programme regulations, and other University regulations (e.g. payment of fees). Credit will be awarded upon passing a module s assessment(s) but some credit may be awarded where failure has been compensated by achievement in other modules. The University s award and assessment regulations specify the University s marking scheme, and rules governing progression (including rules for compensation), reassessment and award requirements. The award and assessment regulations apply to all programmes: any exceptions that relate to this programme are approved by University Teaching Committee and are recorded at the end of this document. Departmental policies on assessment and feedback Detailed information on assessment (including grade descriptors, marking procedures, word counts etc.) is available in the written statement of assessment which applies to this programme and the relevant module descriptions. These are available in the student handbook and on the Department s website: Assessment and Progress.pdf Information on formative and summative feedback to students on their work is available in the written statement on feedback to students which applies to this programmes and the relevant module descriptions. These are available in the student handbook and on the Department s website: 8

10 Module title Module code Credit level 1 Core module table Credit Prerequisites Assessment value 2 rules 3 Timing (term and week) and format of main assessment Introduction to Project L7 5 None Autumn Term (Cont) Management & QA Introduction to MATLAB L7 5 None Autumn Term (Cont) Embedded Computer L7 10 None Spring Term (Cont) Java Programming L7 10 None Autumn Term (Cont) Communication Protocols L7 10 None Spring Term (Exam) Mobile Communication L6 10 None P/F Spring Term (Exam) Computer Networks & L7 10 Core Internet & Summer (Cont) Wireless modules Operating Multimedia Applications L7 10 None Summer (Cont) Network Security L7 10 None Summer (Cont) Pervasive Computing L7 10 None Summer (Cont) Corporate Governance & HR L7 10 None Summer (Cont) Management Further Internet Protocols L7 10 Communication Protocols DSP Architectures L6 10 Core Internet & Wireless modules MSc Project L7 60 Core Internet & Wireless modules P/F P/F Summer (Exam & Cont) Summer (Cont) NC Summer (Cont) Yes Independent Study Module? 4 Explanatory Notes: 1) The credit level indicates the module s relative intellectual demand, complexity and depth of learning and of learner autonomy. Most modules in postgraduate programmes are at Level 7/Masters. Some modules are permitted to be at Level 6/Honours but are marked on a pass/fail basis. 2) The credit value gives the notional workload for the module, where 1 credit corresponds to a notional workload of 10 hours (including contact hours, private study and assessment) 3) Special assessment rules P/F the module is marked on a pass/fail basis (NB pass/fail modules cannot be compensated) NC the module cannot be compensated 4) Independent Study Modules (ISMs) are assessed by a dissertation or substantial project report. They cannot be compensated (NC) and are subject to reassessment rules which differ from taught modules. 9

11 Transfers out of or into the programme N/A Quality and Standards The University has a framework in place to ensure that the standards of its programmes are maintained, and the quality of the learning experience is enhanced. Quality assurance and enhancement processes include: The academic oversight of programmes within departments by a Board of Studies, which includes student representation The oversight of programmes by external examiners, who ensure that standards at the University of York are comparable with those elsewhere in the sector Annual monitoring and periodic review of programmes The acquisition of feedback from students by departments. More information can be obtained from the Academic Support Office: Departmental Statements on Audit and Review Procedures are available at: Date on which this programme information was updated: Departmental web page: 11 th November Please note The information above provides a concise summary of the main features of the programme and learning outcomes that a typical students might reasonably be expected to achieve and demonstrate if he/she takes full advantage of the leaning opportunities that are provided. Detailed information on learning outcomes, content, delivery and assessment of modules can be found in module descriptions. The University reserves the right to modify this overview in unforeseen circumstances, or where processes of academic development, based on feedback from staff, students, external examiners or professional bodies, requires a change to be made. Students will be notified of any substantive changes at the first available opportunity. 10