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Programme Specification for Nano Technology MSc

This programme is only offered at: BITE (British Institute of technology and E-commerce).

Final award

MSc

Intermediate awards available

PgCert, PgDip

UCAS code

N/A

Details of professional body accreditation

N/A

Relevant QAA Benchmark statements

N/A

Date specification last up-dated

November 2011

Profile

The summary - programme advertising leaflet

Programme content

Nanotechnology is a rapidly growing new area of Science and Technology. It will find many applications in many sectors. The Internet carries a plethora of articles describing these possibilities, so this document is not intended to be an exhaustive description, but rather a brief analysis of possible applications in a chosen example area and an examination of how BITE could participate in the overall scenario.

By introducing nanotechnology, many materials and improved products can be created which rely on a change in the physical properties when the feature sizes are shrunk. Nanoparticles take advantage of their dramatically increased surface area to volume ratio. This can give a significant increase in chemical reaction speed, generating major improvements in areas such as rocket propellants.

The materials optical properties are often a function of the particle diameter. From simple applications such as ‘sunscreen’ to complex sensors, nanotechnology offers much promise.

When incorporated into a bulk material, nanoparticles can strongly influence the mechanical properties of the material, like stiffness or elasticity. For example, traditional polymers can be reinforced by nanoparticles or by carbon nanotubes, resulting in novel materials that can be used as lightweight replacements for metals or more traditional carbon fibre composites. Such nanotechnologically enhanced materials will enable a weight reduction accompanied by an increase in stability and an improved functionality.

Medical applications are manifold, from controlled drug release to joint replacements. Equally, the use of nonmaterial filters could also transform water purification and change the health of developing and populous nations dramatically.

Thus, an increasing societal benefit of nanotechnology can be expected as technology reaches maturity and more and more applications are explored and delivered. However, as in all new technologies, the key to success will be to identify applications where nanotechnology offers real advantages and where the return on investment offers a real business opportunity.

Nanotechnology will find application in many sectors, as the processes mature and production costs drop. Early adopters will be the higher value ones, where the advantages outweigh the additional initial costs. The Aerospace sector is described below solely as an example.

This programme will develop conceptual understanding of nano technology and solutions in the electronics world. It will foster innovation through an interdisciplinary approach to industry and non-industrial sectors that rely on emerging

MSc Nano Technology

BITE offers a balance between an industry and academic learning environment with small class sizes and on-going support and guidance for the best achievement. Our approach to learning is focused on the student and the development of a skill-set that can be applied.

Admission requirements

The Institute will apply the principle of equality of opportunity to its admission process and will encourage the recruitment of local and national students and those with special needs. In considering individual applicants for admission to a course of study the Institute will seek evidence of personal, professional and educational experience that provides indications of ability to meet the demands of the programme.

Student will be called for interview to discuss admission to the programme.

The entry requirement for the MSc programme is normally satisfied by possession of one of the following:

  • BSc(Hons) or BEng(Hons) in Electrical/Electronic Engineering, Mechanical Engineering, Computer Science, Physics, Mathematics, Chemical Engineering, or an appropriate and related subject, with an award classification of no less than a lower second class honours (2:2).
  • A degree qualification of a standard equivalent to that obtained after a programme of study in a recognised university outside the UK. (Note: Sources such as the British Council Handbook and NARIC will be used as references to verify the qualifications equivalence to a UK degree)
  • Students may be admitted with advanced standing through the recognition of credit or the accreditation of experiential or certificated learning according to the University of East London Accreditation of (Experiential) Learning (A(E)L) policy.
    A student may gain admission to a programme, with advanced standing, with up to half of the credits associated with the award being achieved through accredited experiential learning, or up two thirds through accredited certificated learning (Where a combination of experiential and certificated learning is involved up to one half of the credits for the award may be achieved through accredited experiential learning with further credits being achieved through accredited certificated learning up to a maximum of two thirds of the credits for the award)
  • Applicants will also be required to meet the Institutes standard for competence in English language and will be expected to hold GCSE grade C or an equivalent in English or a TOFEL score or IELTs 6.5 or equivalent.

In the case of applicants whose first language is not English, then IELTS 6.5 (or equivalent) is required. International qualifications will be checked for appropriate matriculation to UK Higher Education postgraduate programmes. Students that apply to enter stages of the programme may be admitted through normal Accreditation of Experiential Learning (AEL) or Accreditation of Certificated Learning (ACL) processes, or through an approved articulation agreement. Therefore such applicants must be able to demonstrate and evidence that they have the required learning outcomes as listed in the modules for which they are seeking exemption.

Programme structure

The programme is offered for one calendar year on the full-time mode commencing in September, February and a minimum of two calendar years on the part-time mode. The calendar year for the full-time mode consists of two semesters, plus the summer recess for research dissertation. The minimum period for completion of the MSc is 1 year full-time and 2 years part-time.

Students joining the programme in February will take 16 months to complete the programme due to the timing of the research project within the confines of the academic calendar.

Learning environment

Our Learning environment consists of the tradition lecture, Seminars, workshops, and laboratory space. There will also be external visits to cooperating organisations and local universities who are giving us access to some specialist lab equipment. We will also be using our online virtual learning environment to supplement the delivery of the programming.

Assessment

Assessment methods which enable students to demonstrate the learning outcomes for each Module, with the exception of the dissertation, have the following weights:

  • Assignment 50%
  • Examination 50%

Students will be given coursework during the semester and exams will take place at the end of the semester.

Relevance to work/profession

Nanotechnology will find application in many sectors, as the processes mature and production costs drop. Early adopters will be the higher value ones, where the advantages outweigh the additional initial costs. The Aerospace sector is described below solely as an example.

This programme will develop conceptual understanding of nano technology and solutions in the electronics world. It will foster innovation through an interdisciplinary approach to industry and non-industrial sectors that rely on emerging. Students who successfully complete this programme may be able to work in the following sectors:

  • pharmaceutical
  • bio-tech industry
  • aerospace
  • manufacturing
  • energy industry
  • consumer electronics
  • telecommunications
  • food

Thesis/Dissertation/project work

The research dissertation is a key element of this programme and as such counts as a double module (60 credits). Research topics are often developed from work-based problems and many are supported by industrialists.

The objective of the dissertation is to develop the student's ability to study independently, making their own critical appraisal of their chosen subject and drawing conclusions from it.

Students will be required to demonstrate that the research undertaken has been completed to an appropriate level for a Masters award. The dissertation must therefore, in general terms, include elements of research, independent work, the derivation of a product (through laboratory testing, critical analysis or computer programming) and the analysis of data.

The research will be required to make a contribution to the understanding of the field studied and will be supervised by a member of staff with an interest in the field.

Added value

Student who study this programme may seek exemptions from professional bodies.

Your future career

This programme will develop conceptual understanding of nano technology and solutions in the electronics world. It will foster innovation through an interdisciplinary approach to industry and non-industrial sectors that rely on emerging. Students who successfully complete this programme may be able to work in the following sectors:

  • pharmaceutical
  • bio-tech industry
  • aerospace
  • manufacturing
  • energy industry
  • consumer electronics
  • telecommunications
  • food

How we support you

BITE strives for excellence in supporting students in many ways. We help you identify your strengths and direct you towards the development of sound and practical knowledge in that field. BITE’s support service has an enviable ratio of students to each tutor.

Each student is allocated a personal tutor. This is a member of the academic staff who they can go to individually for general guidance and advice.

The Institute Careers Advisory Service is based in the main building and provides presentations and skills workshops, one-to-one guidance, a library and information service (including vacancies and help with preparing for job-search).

Bonus factors

Located in the heart of East London, we are well placed to work with the thriving businesses of Canary Wharf and the City of London. Academics from around the world have reviewed our specialised degree and research programmes with interest and excitement.

BITE is well known for combining academic theory with a hands-on practical approach to a high standard of delivery and academic achievement. All of our programmes give you the opportunity to develop the IT, research and business skills that we know employers are looking for.

Outcomes

Programme aims and learning outcomes

What is this programme designed to achieve?

This programme is designed to give you the opportunity to:

The aim of this programme is to provide students with a sound theoretical and practical knowledge in nanotechnology. This is the technology that will revolutionise the technological world. The programme should broaden students’ critical and analytical understanding of nano-applications and how they are used to solve real world problems and provide solutions.

What will you learn?

Knowledge

  • recognise, describe and critique these new methodologies of nanoscience
  • show critical knowledge of bio and nano integration.
  • critically survey and analyse relevant theories and research methods

Thinking skills

  • critically appraise aspects of the nanoworld
  • show a conceptual understanding of the nanoscale sector
  • examine current practical nano-applications

Subject-Based Practical skills

  • originate nano-learning processes and application
  • demonstrate self direction and originality in tackling and solving nano downfalls
  • make informed judgements of nano enabling technologies and offer solutions for particular applications
  • critically evaluate current challenges in nanotechnology.
  • demonstrate self direction and originality in tackling and solving problems in practices for nano-array.
  • demonstrate cognitive, intellectual skills and theories while establishing appropriate criteria for informed recommendations and conclusions.

Skills for life and work (general skills)

  • demonstrate comprehensive understanding of ultra-small scale science
  • draw on qualities and transferable skills necessary for decision making in complex and unpredictable situations
  • demonstrate how complex issues on nanodesigns can be addressed systematically and creatively.
  • demonstrate the initiative and practical skills essential to respond appropriately to problems encountered at the nano level
  • critique and act autonomously in planning and implementing nano scientific projects.
  • demonstrate research knowledge and principal theory for the dissertation

Structure

The programme structure

Introduction

All programmes are credit-rated to help you to understand the amount and level of study that is needed.

One credit is equal to 10 hours of directed study time (this includes everything you do e.g. lecture, seminar and private study).

Credits are assigned to one of 5 levels:

0 equivalent in standard to GCE 'A' level and is intended to prepare students for year one of an undergraduate degree programme
1 equivalent in standard to the first year of a full-time undergraduate degree programme
2 equivalent in standard to the second year of a full-time undergraduate degree programme
3 equivalent in standard to the third year of a full-time undergraduate degree programme
M equivalent in standard to a Masters degree

Credit rating

The overall credit-rating of this programme is 180 credits at Level M

Typical duration

  • Full-time one year
  • Part-time two years

In full time mode, if you commence the programme in February, the programme will end with the Dissertation module in June of the following year. However if you commence the programme in September, the programme will end with the Dissertation module in October of the following year.

It is possible to move from full-time to part-time and vice –versa to accommodate any external factors such as financial constraints or domestic commitments. Many of our students make use of this flexibility and this may impact on the overall duration of their study period.

How the teaching year is divided

The teaching year begins in September and February. A typical student registered in a full-time attendance mode will study the equivalent of 120 credits over the year. A typical student registered in a part-time attendance mode will study for one day and/or two evenings per week and will complete 60 credits.

What you will study when

The programme will be delivered across two semesters of 15 weeks each (full-time) and the project dissertation will be completed during the summer vacation period giving a total of 45 weeks for the academic year. The part-time provision will span two academic years or 90 weeks. The MSc programme consists of taught modules of 30 credits each and also includes a research dissertation. Students will study 4 units followed by research methods and a research dissertation for the MSc award.

The Modules offered are as follows:

SemesterModule Code Module TitleCredits at level M

A

 SDM066

Nanoscience

30

B

 SDM067

Nanoelectronics

30

A

 SDM068

Nanophysics

30

B

 SDM069

Nanomedicine

30

C

 IMM062

Research Methods and Research Dissertation

60

Requirements for gaining an award

In order to gain a Postgraduate Certificate, you will need to obtain 60 credits at Level M.

In order to gain a Postgraduate Diploma, you will need to obtain 120 credits at Level M.

In order to obtain a Masters, you will need to obtain 180 credits at Level M. These credits will include a 60 credit level M core module of advanced independent research.

Masters Award Classification

Where a student is eligible for an Masters award then the award classification is determined by calculating the arithmetic mean of all marks and applying the mark obtained as a percentage, with all decimals points rounded up to the nearest whole number, to the following classification

70% - 100%

Distinction

60% - 69%

Merit

50% - 59%

Pass

0% - 49%

Not Passed

Assessment

Teaching, learning and assessment

Teaching and learning

Knowledge is developed through

  • A combination of formal lectures presentations, classroom problem solving sessions, and guided lab work
  • Support in self study, using other materials and the use of on-line resources
  • Encouragement to use information sources and documentation

Thinking skills are developed through

  • Practical coursework
  • Laboratory exercises
  • Discussion in class
  • Where appropriate on-line interaction

Practical skills are developed through

  • Lab exercises
  • Simulations and experiments
  • Real-work related projects

Skills for life and work (general skills) are developed through

  • Participation in group discussions or exercises
  • Classroom and lab exercises

Assessment

Knowledge is assessed by

  • Coursework
  • Examination
  • Presentation

Thinking skills are assessed by

  • The final outcome of the dissertation project module
  • Examination

Practical skills are assessed by

  • Case-study analysis
  • Lab exercises
  • Experiments
  • Surveys

Skills for life and work (general skills) are assessed by

  • Oral and written Presentations

Quality

How we assure the quality of this programme

Before this programme started

Before this programme started, the following was checked:

  • there would be enough qualified staff to teach the programme;
  • adequate resources would be in place;
  • the overall aims and objectives were appropriate;
  • the content of the programme met national benchmark requirements;
  • the programme met any professional/statutory body requirements;
  • the proposal met other internal quality criteria covering a range of issues such as admissions policy, teaching, learning and assessment strategy and student support mechanisms.

This is done through a process of programme approval which involves consulting academic experts including some subject specialists from other institutions.

How we monitor the quality of this programme

The quality of this programme is monitored each year through evaluating:

  • external examiner reports (considering quality and standards);
  • statistical information (considering issues such as the pass rate);
  • student feedback.

Drawing on this and other information, programme teams undertake the annual Review and Enhancement Process which is co-ordinated at School level and includes student participation. The process is monitored by the Quality and Standards Committee.

Once every six years an in-depth review of the whole field is undertaken by a panel that includes at least two external subject specialists. The panel considers documents, looks at student work, speaks to current and former students and speaks to staff before drawing its conclusions. The result is a report highlighting good practice and identifying areas where action is needed.

The role of the programme committee

This programme has a programme committee comprising all relevant teaching staff, student representatives and others who make a contribution towards the effective operation of the programme (e.g. library/technician staff). The committee has responsibilities for the quality of the programme. It provides input into the operation of the Review and Enhancement Process and proposes changes to improve quality. The programme committee plays a critical role in the quality assurance procedures.

The role of external examiners

The standard of this programme is monitored by at least one external examiner. External examiners have two primary responsibilities:

  • To ensure the standard of the programme;
  • To ensure that justice is done to individual students.

External examiners fulfil these responsibilities in a variety of ways including:

  • Approving exam papers/assignments;
  • Attending assessment boards;
  • Reviewing samples of student work and moderating marks;
  • Ensuring that regulations are followed;
  • Providing feedback through an annual report that enables us to make improvements for the future.

Listening to the views of students

The following methods for gaining student feedback are used on this programme:

  • Module evaluations
  • Student representation on programme committees (meeting 2 times year)
  • Student/Staff consultative committee (meeting 3 times a year)

Students are notified of the action taken through:

  • circulating the minutes of the programme committee
  • a newsletter published three times a year
  • providing details on the programme notice board

Listening to the views of others

The following methods are used for gaining the views of other interested parties:

  • Questionnaires to former students
  • Annual student satisfaction questionnaire
  • Industrial liaison committee

Further Information

Alternative locations for studying this programme

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Where you can find further information

Further information about this programme is available from:


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