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Masters Degrees (Process System)

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This Masters programme trains graduates of engineering, science or related disciplines in general and specialist process systems engineering subjects. Read more

This Masters programme trains graduates of engineering, science or related disciplines in general and specialist process systems engineering subjects.

Such areas are not generally covered in engineering and science curricula, and BSc graduates tend to be ill prepared for the systems challenges they will face in industry or academia on graduation.

Programme structure

This programme is studied full-time over one academic year and part-time students must study at least two taught technical modules per academic year. It consists of eight taught modules and a dissertation.

Example module listing

The following modules are indicative, reflecting the information available at the time of publication. Please note that not all modules described are compulsory and may be subject to teaching availability and/or student demand.

Facilities, equipment and academic support

Modules related to the different groups are taught by a total of six full-time members of staff and a number of visiting lecturers.

As part of their learning experience, students have at their disposal a wide range of relevant software needed to support the programme material dissertation projects. In recent years, this work included the design of various knowledge-based and business systems on the internet, the application of optimisation algorithms, and semantic web applications.

Numerous laboratory facilities across the Faculty and the University are also available for those opting for technology-based projects, such as the process engineering facility, a control and robotics facility and signal processing labs.

The work related to the MSc dissertation can often be carried out in parallel with, and in support of, ongoing research. In the past, several graduates have carried on their MSc research to a PhD programme.

Career prospects

Engineers and scientists are increasingly expected to have skills in information systems engineering and decision-support systems alongside their main technical and/or scientific expertise.

Graduates of this programme will be well prepared to help technology-intensive organisations make important decisions in view of vast amounts of information by adopting, combining, implementing and executing the right technologies.

Educational aims of the programme

The programme aims to provide a highly vocational education which is intellectually rigorous and up-to-date. It also aims to provide the students with the necessary skills required for a successful career in the process industries.

This is achieved through a balanced curriculum with a core of process systems engineering modules supplemented by a flexible element by way of elective modules that permit students to pursue an element of specialisation relevant to their backgrounds, interests and/or career aspirations.

An integrated approach is taken so as to provide a coherent view that explores the interrelationships between the various components of the programme. The programme draws on the stimulus of the Faculty’s research activities.

The programme provides the students with the basis for developing their own approach to learning and personal development.

Programme learning outcomes

Knowledge and understanding

  • State-of- the-art knowledge in process systems engineering methods, in the areas of: modelling and simulation of process systems, mathematical optimization and decision making, process systems design, supply chain management, process and energy integration, and advanced process control technologies
  • Advanced level of understanding in technical topics of preference, in one or more of the following aspects: renewable energy technologies, refinery and petrochemical processes, biomass processing technologies, and knowledge-based systems

Intellectual / cognitive skills

The programme aims to strengthen cognitive skills of the students, particularly in the aspects of problem definition, knowledge and information acquiring, synthesis, and creativity, as collectively demonstrable through the successful completion of the research dissertation. The key learning outcomes include the abilities to:

  • Select, define and focus upon an issue at an appropriate level
  • Collect and digest knowledge and information selectively and independently to support a particular scientific or engineering enquiry
  • Develop and apply relevant and sound methodologies for analysing the issue, developing solutions, recommendations and logical conclusions, and for evaluating the results of own or other’s work

Professional practical skills

The programme primarily aims to develop skills for applying appropriate methods to analyse, develop, and assess process systems and technologies. The key learning outcomes include the abilities to:

  • Assess the available systems in the process industries
  • Design and/or select appropriate system components, and optimise and evaluate system design
  • Apply generic systems engineering methods such as modelling, simulation, and optimization to facilitate the assessment and development of advanced process technologies and systems

Key / transferable skills

The programme aims to strengthen a range of transferable skills which are relevant to the needs of existing and future professionals in knowledge intensive industries irrespective of their sector of operation. The key learning outcomes include the further development of the skills in the following areas:

  • Preparation and delivery of communication and presentation
  • Report and essay writing
  • Use of general and professional computing tools
  • Collaborative working with team members
  • Organising and planning of work
  • Research into new areas, particularly in the aspect of literature review and skills acquisition

Global opportunities

We often give our students the opportunity to acquire international experience during their degrees by taking advantage of our exchange agreements with overseas universities.

In addition to the hugely enjoyable and satisfying experience, time spent abroad adds a distinctive element to your CV.



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This programme explores technology across a wide scope of engineering disciplines and will train you in general and specialist process systems engineering – crucial aspects for finance, industrial management and computer-integrated manufacturing. Read more

This programme explores technology across a wide scope of engineering disciplines and will train you in general and specialist process systems engineering – crucial aspects for finance, industrial management and computer-integrated manufacturing.

There is a wide selection of modules on offer within the programme. All taught modules are delivered by qualified experts in the topics and academic members of University staff, assisted by specialist external lecturers.

Our programme combines high-quality education with substantial intellectual challenges, making you aware of current technologies and trends while providing a rigorous training in the fundamentals of the subject.

Programme structure

This programme is studied full-time over one academic year and part-time students must study at least two taught technical modules per academic year. It consists of eight taught modules and a dissertation.

Example module listing

The following modules are indicative, reflecting the information available at the time of publication. Please note that not all modules described are compulsory and may be subject to teaching availability and/or student demand.

Educational aims of the programme

The programme combines advanced material in two popular and complementary topics: systems engineering and environmental engineering. The key learning outcome is a balanced combination of systems and environmental skills and prepares students in a competitive market where both topics appear attractive.

The programme will provide training in general and specialist process and environmental systems engineering subjects, and prepare the students for the systems challenges they will face in industry or academia upon graduation.

The programme disseminates technology with a wide scope among engineering disciplines, with a wide selection of modules on offer. All taught modules are delivered by qualified experts in the topics and academic members of the university staff, assisted by specialist external lecturers.

The programme provides high-quality education with substantial intellectual challenges, commensurate with the financial rewards and job satisfaction when venturing into the real world. A key component is to make the student aware of current technologies and trends, whilst providing a rigorous training in the fundamentals of the subject.

Programme learning outcomes

Knowledge and understanding

The programme aims to develop the knowledge and understanding in both process and environmental systems engineering. The key learning outcomes include:

  • State-of- the-art knowledge in process and environmental technologies, in the areas of: life cycle assessment and sustainable development, modelling and simulation of process systems, mathematical optimization and decision making, process systems design, and process and energy integration
  • Advanced level of understanding in technical topics of preference, in one or more of the following aspects: general renewable energy technologies, and solar energy in particular; advanced process control

Intellectual / cognitive skills

The programme aims to strengthen cognitive skills of the students, particularly in the aspects of problem definition, knowledge and information acquiring, synthesis, and creativity, as collectively demonstrable through the successful completion of the research dissertation.

The key learning outcomes include the abilities to:

  • Select, define and focus upon an issue at an appropriate level
  • Collect and digest knowledge and information selectively and independently to support a particular scientific or engineering enquiry
  • Develop and apply relevant and sound methodologies for analysing the issue, developing solutions, recommendations and logical conclusions, and for evaluating the results of own or other’s work

Professional practical skills

The programme primarily aims to develop skills for applying appropriate methods to analyse, develop, and assess process and environmental systems and technologies. The key learning outcomes include the abilities to:

  • Assess the available systems in the process industries with focus on environmental challenges
  • Design and/or select appropriate system components, and optimise and evaluate system design
  • Apply generic systems engineering methods such as modelling, simulation, and optimization to facilitate the assessment and development of advanced process and environmental technologies and systems

Key / transferable skills

The programme aims to strengthen a range of transferable skills which are relevant to the needs of existing and future professionals in knowledge intensive industries irrespective of their sector of operation. The key learning outcomes include the further development of the skills in the following areas:

  • Preparation and delivery of communication and presentation
  • Report and essay writing
  • Use of general and professional computing tools
  • Collaborative working with team members
  • Organising and planning of work
  • Research into new areas, particularly in the aspect of literature review and skills acquisition

Global opportunities

We often give our students the opportunity to acquire international experience during their degrees by taking advantage of our exchange agreements with overseas universities.

In addition to the hugely enjoyable and satisfying experience, time spent abroad adds a distinctive element to your CV.



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Process systems engineering deals with the design, operation, optimisation and control of all kinds of chemical, physical, and biological processes through the use of systematic computer-aided approaches. Read more

Process systems engineering deals with the design, operation, optimisation and control of all kinds of chemical, physical, and biological processes through the use of systematic computer-aided approaches. Its major challenges are the development of concepts, methodologies and models for the prediction of performance and for decision-making for an engineered system.

Who is it for?

Suitable for engineering and applied science graduates who wish to embark on successful careers as process systems engineering professionals. 

The course equips graduates and practising engineers with an in-depth knowledge of the fundamentals of process systems and an excellent competency in the use of state-of-the-art approaches to deal with the major operational and design issues of the modern process industry. The course provides up-to-date technical knowledge and skills required for achieving the best management, design, control and operation of efficient process systems. 

Why this course?

Process systems engineering constitutes an interdisciplinary research area within the chemical engineering discipline. It focuses on the use of experimental techniques and systematic computer-aided methodologies for the design, operation, optimisation and control of chemical, physical, and biological processes, e.g. from chemical and petrochemical processes to pharmaceutical and food processes. 

A distinguished feature of this course is that it is not directed exclusively at chemical engineering graduates. Throughout the years, the course has evolved from discussions with industrial advisory panels, employers, sponsors and previous students. The content of the study programme is updated regularly to reflect changes arising from technical advances, economic factors and changes in legislation, regulations and standards.

By completing this course, a diligent student will be able to: 

  • Evaluate the technical, environmental and economic issues involved in the design and operation of process plants and the current practice in process industries.
  • Apply effectively the knowledge gained to the design, operation, optimisation and control of process systems via proper methodologies and relevant software.
  • Apply independent learning, especially via the effective use of information retrieval systems and a competent and professional approach to solving problems of industrial process systems.
  • Apply and critically evaluate key technical management principles, including project management, people management, technology marketing, product development and finance.
  • Apply advanced approaches and use effectively related tools in more specialised subjects related to process industries (for example risk management, biofuels or CFD tools).
  • Integrate knowledge, understanding and skills from the taught modules in a real-life situation to address problems faced by industrial clients; creating new problem diagnoses, designs, or system insights; and communicating findings in a professional manner in written, oral and visual forms.
  • Define a research question, develop aim(s) and objectives, select and execute a methodology, analyse data, evaluate findings critically and draw justifiable conclusions, demonstrating self-direction and originality of thought.
  • To communicate his/her individual research via a thesis and in an oral presentation in a style suitable for academic and professional

Accreditation

This MSc degree is accredited by Institution of Mechanical Engineers (IMechE)

Course details

The taught programme for the MSc in Process Systems Engineering is delivered from October to February and is comprised of six compulsory taught modules. There are four optional modules to select the remaining two modules from.

Group project

The Group Project, which runs between February and April, enables you to put the skills and knowledge developed during the course modules into practice in an applied context while gaining transferable skills in project management, teamwork and independent research. The group project is usually sponsored by industrial partners who provide particular problems linked to their plant operations. Projects generally require the group to provide a solution to the operational problem. Potential future employers value this experience. This group project is shared across the MSc in Process Systems Engineering and other courses, giving the added benefit of gaining new insights, ways of thinking, experience and skills from students with other backgrounds

During the project you will develop a range of skills including learning how to establish team member roles and responsibilities, project management, and delivering technical presentations. At the end of the project, all groups submit a written report and deliver a presentation to the industrial partner. This presentation provides the opportunity to develop interpersonal and presentation skills within a professional environment.

It is clear that the modern engineer cannot be divorced from the commercial world. In order to provide practice in this matter, a poster presentation will be required from all students. This presentation provides the opportunity to develop presentation skills and effectively handle questions about complex issues in a professional manner.

Part-time students are encouraged to participate in a group project as it provides a wealth of learning opportunities. However, an option of an individual dissertation is available if agreed with the Course Director.

Individual project

The individual research project allows you to delve deeper into a specific area of interest. As our academic research is so closely related to industry, it is very common for our industrial partners to put forward real-world problems or areas of development as potential research topics.

The individual research project component takes place between April/May and August for full-time students. For part-time students, it is common that their research projects are undertaken in collaboration with their place of work under academic supervision; given the approval of the Course Director.

Individual research projects undertaken may involve designs, computer simulations, feasibility assessments, reviews, practical evaluations and experimental investigations.

Assessment

Taught modules 40%, Group project 20% (dissertation for part-time students), Individual Research Project 40%

Funding

To help students in finding and securing appropriate funding we have created a funding finder where you can search for suitable sources of funding by filtering the results to suit your needs. Visit the funding finder.



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The Department of Chemical Engineering is seeking to appoint an MPhil/MRes student to conduct research for Eco-Innovation Cheshire and Warrington Industry Collaboration programme. Read more

The Department of Chemical Engineering is seeking to appoint an MPhil/MRes student to conduct research for Eco-Innovation Cheshire and Warrington Industry Collaboration programme. This studentship is part funded by the European Regional Development Fund (ERDF).

 

Background

The proposed project will investigate the design of a continuous bioreactor for maximum capture of CO2.

Autichem Ltd has developed a new type of flow reactor (DART). DART is designed to be a fully scalable technology with capacities from miso scale (10ml) to industrial scale. 

It is proposed that the MPhil/MRes project runs for 1 year and will utilize DART to achieve a process design for the optimized capture of CO2.

 

Summary of research tasks and work programme

Using the Autichem Ltd’s DART technology as the continuous process platform, the projects objectives will be, but not limited to the following:

·        To convert a batch process to a continuous process

·        To research and understand the possibilities of applying closed loop control to a continuous process.

·        The design an industrial scale process that is based on the knowledge gained during the research and testing phases of the project.

Project Deliverables

The project should aim to deliver the following:

·        A process design for a lab scale flow reactor system based on Autichem Ltd’s DART reactor

·        Data which demonstrates the successful operation of the process in the prototype DART reactor system at lab/pilot scale.

·        A detailed process design for an industrial scale system

·        All research documents relating to the development of the reactor and associated control system.

·        3 off research posters which provide insight into the operation of the process in the DART system and which can be used to promote what has been achieved. These could, for example, be on the general topic areas of: converting batch to continuous; control of a continuous process and scaling up a continuous process to industrial scale.

 

Skills and knowledge

·        A fundamental understanding of continuous process design at industrial scale.

·        Experience with bio process development

·        Knowledge of working with micro organisms

Funding

This MPhil attracts a tax exempt stipend of £15,000 per annum. Post graduate fees are funded for UK/EU based students. International students will be required to make an additional contribution to their post graduate fees.

 

Application process

A completed University of Chester Postgraduate Research Degree (MPhil) application form including contact details of two referees (at least one must be familiar with your most recent academic work).

 Candidates should apply online via the University of Chester  https://www.chester.ac.uk/research/degrees/studentships and specify their reference number when applying. The reference number is: RA001802

Availability for interview

Please be available for interview during the week of the 20th November 2017. Exact time and date to be agreed.

Further information

Prospective applicants are encouraged to initially contact Steve Wilkinson 01244 513921 to discuss the project further. For general enquiries contact " target="_blank">

 Closing date: 14th November 2017



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IN BRIEF. Gain a critical and comprehensive overview of the contemporary criminal justice process. Excellent opportunities to interact with criminal justice practitioners, both on and off campus. Read more

IN BRIEF:

  • Gain a critical and comprehensive overview of the contemporary criminal justice process
  • Excellent opportunities to interact with criminal justice practitioners, both on and off campus
  • Boost your career within Criminal Justice through enhancing your knowledge in this area and developing your reflective skills
  • Part-time study option
  • Work/industrial placement opportunity
  • International students can apply

COURSE SUMMARY

This unique course views the criminal justice process as a set of decision points involving numerous agencies working singly or jointly.

It provides you with comprehensive, up-to-date, information while exploring in detail some key contemporary transformations in the field (digitalisation, partnership working, internationalisation, privatisation and accountability).

It is aimed at criminal justice practitioners, or those intending to work in this field. Our strong and growing links with local and regional criminal justice agencies support a critical and reflective approach to the workings of criminal justice.

COURSE DETAILS

MSc The Criminal Justice Process will lead you to:

  1. Develop a systematic understanding of the criminal justice process.
  2. Gain a critical awareness of key transformations in the contemporary criminal justice process.
  3. Acquire the analytical skills required to formulate original and innovative analyses of the contemporary criminal justice process.
  4. Develop critical reflection on the nature, linkages and accountabilities of key roles in the criminal justice process.

The course has both full-time and part-time routes, comprising three 12-week semesters or five 12-week semesters, which you can take within one year, or 30 months, respectively.   

TEACHING

All modules except the Dissertation and Criminal Justice Placement/Project are delivered via blended learning, combining some three-hour evening sessions on campus with distance learning activities (e.g. online reading, discussion board, webinars). Classes frequently use case studies as the focus for discussion. Lecturers provide key overviews of each topic. Students use classroom or online group discussions and questions-and-answers to explore each week’s topic. Where appropriate, experienced practitioners will join the session as visiting instructors.

All modules are supported by the virtual learning environment (Blackboard), which allows students to access learning materials remotely, participate in discussion boards and webinars, and access lists of recommended readings. The vast majority of the latter are available through the Library in electronic form and can be retrieved remotely.

Students opting to write a dissertation are supported by a designated supervisor. Students opting to undertake the Criminal Justice Placement/Project are supported by an on-site supervisor in the corresponding agency and by an academic supervisor on campus.

ASSESSMENT

You will be assessed through written assignments (66%) and dissertation (33%) or project (25%) and oral presentation (8%)

EMPLOYABILITY

Criminal justice practitioners who obtain this qualification will typically use it as a credential for promotion within their organisation.  

Recent graduates can use this qualification to support their applications for employment in the criminal justice system.

CAREER PROSPECTS

This course will suit you if you are planning to seek promotion within the criminal justice agency in which you currently work, or are seeking to change employment within the sector.  

Recent graduates can use this qualification to support their applications to the wide variety of organizations involved in the criminal justice process: police, private security companies, victim and court services, probation, the prison service, youth offending services, treatment and intervention programmes.

LINKS WITH INDUSTRY

We are proud of the growing links we have established with our Criminal Justice Partners – experienced practitioners from all segments of the criminal justice system who support our teaching at all levels. These practitioners provide invaluable guidance on new procedures and policies in criminal justice, contribute to our classes as guest instructors, and host site visits for students. They ensure that our teaching is up-to-date, closely linked to developments in the sector, and critically informed by their professional perspectives and experiences.

FURTHER STUDY

Further study beyond the MSc would involve a research degree (either an MPhil or PhD). The Directorate of Social Sciences has numerous research-active staff, several of whom specialise in topics relating to criminology and security. (See http://www.salford.ac.uk/nmsw/academics for detailed information.) We welcome applications for research degrees and can support a wide variety of projects relating to the criminal justice process.



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Process engineering often involves close collaboration between engineers and scientists from a variety of disciplines. Read more

Process engineering often involves close collaboration between engineers and scientists from a variety of disciplines. The MSc in Chemical Process Engineering at UCL is specifically designed to facilitate this collaboration and provides graduates from a variety of engineering and science disciplines with the advanced training required to enter the chemical or biochemical industries.

About this degree

The MSc in Chemical Process Engineering aims to provide students with a solid academic background in a broad range of Chemical Engineering topics and advanced skills in problem-solving necessary for a successful career in the sector.

For 2017/18, the MSc in Chemical Process Engineering programme consists of seven modules selected from a list of available modules.

From 2018/19, the programme will be split into three different routes with different compulsory and optional modules. The routes are:

  • Advanced Chemical Engineering Route (accredited by the IChemE)
  • Design Route (accredited by the IChemE)
  • Research Route

Apart from this, the programme remains unchanged.

Dissertation/report

All students undertake either a research project or a design project, which culminates in a project report and an oral examination.

Teaching and learning

The programme is delivered through a combination of lecture-based courses, individual and group activities, assessed coursework and tutorial sessions. Advanced design or research projects are provided to extend knowledge and understanding of the topics studied and to encourage critical thinking. Creativity and innovation is encouraged on the demonstration of sound judgement and assumptions. Assessment is mainly through examinations, coursework and reports.

Further information on modules and degree structure is available on the department website: Chemical Process Engineering MSc

Careers

Upon completion, our graduates can expect to play a major role in developing the technologies that make available most of the things that we use in everyday life and provide the expertise and technology to enhance our health and standard of living. These activities may involve the development of new materials, food processing, water treatment, pharmaceuticals, transport and energy resources as well as being at the frontline, addressing present environmental issues such as climate change.

Typical destinations of recent graduates include: Amec Process and Energy, British Petroleum, Royal Dutch Shell, National Grid, Health & Safety Executive. Career profiles of some of our recent MSc graduates are available on our website.

Employability

Students gain in-depth knowledge of core chemical engineering subjects and of the advanced use of computers in process design, operation and management. They receive thorough training in hazard identification, quantification and mitigation, as well as in risk management and loss prevention, and also learn how to design advanced energy systems, with emphasis on sustainability, energy efficiency and the use of renewable energy sources. Students learn how to make decisions under uncertain scenarios and with limited available data and receive training on how to plan, conduct and manage a complex (design or research) project.

Why study this degree at UCL?

UCL Chemical Engineering, situated in the heart of London, is one of the top-rated departments in the UK, being internationally renowned for its outstanding research.

The programme is the first of its kind in the UK and is accredited by the Institution of Chemical Engineers (IChemE) as meeting IChemE's requirements for Further Learning to Master's Level. This recognition will fulfil an important academic qualification for MSc graduates with suitable first degrees in eventually becoming Corporate Members of IChemE.

Research Excellence Framework (REF)

The Research Excellence Framework, or REF, is the system for assessing the quality of research in UK higher education institutions. The 2014 REF was carried out by the UK's higher education funding bodies, and the results used to allocate research funding from 2015/16.

The following REF score was awarded to the department: Chemical Engineering

90% rated 4* (‘world-leading’) or 3* (‘internationally excellent’)

Learn more about the scope of UCL's research, and browse case studies, on our Research Impact website.



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This MSc course has been developed for the Jaguar Land Rover Technical Accreditation Scheme. The course is available on a part time basis, taking typically four years to complete. Read more
This MSc course has been developed for the Jaguar Land Rover Technical Accreditation Scheme.

The course is available on a part time basis, taking typically four years to complete. Students take 12 Assessed Modules over 3 years, 5 of which are Core (C) and 7 Optional (O), plus a project on a SSE topic within the automotive domain (over the final year). See the Project tab for more details.

This modular MSc is designed to prepare students for work in the demanding field of Safety Systems Engineering (SSE) by exposing them to the latest science and technology within this field. In the core module phase, the course focuses on the principles and practices in SSE across a range of domains, including automotive. In the optional module phase, the course focuses on specialist SSE and automotive topics. The projects are also designed to consider SSE topics within an automotive context.

The discipline of SSE developed over the last half of the twentieth century. It can be viewed as a process of systematically analysing systems to evaluate risks, with the aim of influencing design in order to reduce risks, i.e. to produce safer products and services. In mature industries, such as aerospace and nuclear power, the discipline has been remarkably successful, although there have been notable exceptions to the generally good safety record, e.g. Fukushima, Buncefield and the Heathrow 777 accident.

Various trends pose challenges for traditional approaches to SSE. For example, classical hazard and safety analysis techniques deal poorly with computers and software where the dominant failure causes are errors and oversights in requirements or design. Thus these techniques need extending and revising in order to deal effectively with modern systems. Also, in our experience, investigation of issues to do with safety of computer systems have given some useful insights into traditional system safety engineering, e.g. into the meaning of important concepts such as the term hazard. The optional modules allow students to investigate such areas as the contribution of software, human factors or operational factors within an automotive engineering context in more depth.

Learning Outcomes
The course aims to provide participants with a thorough grounding and practical experience in the use of state-of-the-art techniques for development of safety critical systems, together with an understanding of the principles behind these techniques so that they can make sound engineering judgements during the design, deployment and operation of such systems. Graduates completing the course will be equipped to participate in safety-critical systems engineering related aspects of industry and commerce.

New areas of teaching will be developed in response to new advances in the field as well as the requirements of the organisations that employ our graduates.

The course aims to equip students with knowledge, understanding and practical application of the essential components of System Engineering, to complement previously gained knowledge and skills. A York System Safety Engineering with Automotive Applications graduate will have a knowledge and understanding of the essential areas, as represented by the core modules, knowledge and understanding on a number of specialist topics, as represented by the optional modules. and an ability to identify issues with the safety process in a particular project, identify responses to this gap and evaluate the proposal, as represented by the project.

Transferable Skills
Information-retrieval skills are an integrated part of many modules; students are expected to independently acquire information from on-line and traditional sources. These skills are required within nearly all modules.

Numeracy is required and developed in some modules. Time management is an essential skill for any student in the course. The formal timetable has a substantial load of lectures and labs. Students must fit their private study in around these fixed points. In addition, Open Assessments are set with rigid deadlines which gives students experience of balancing their time between the different commitments.

All students in the University are eligible to take part in the York Award in which they can gain certified transferable skills. This includes the Languages for All programme which allows students to improve their language skills.

Projects

The MSc System Safety Engineering with Automotive Applications project for part-time students is 60 credits in length:
-Literature survey on a subject to determine the state of the art in that area
-A gap in the state of the art identified in the first part is addressed, a proposal made and evidence provided for the proposal. This project is completed in September of a student's fourth year

The Project(s) enable(s) students to:
-Demonstrate knowledge of an area by means of a literature review covering all significant developments in the area and placing them in perspective
-Exhibit critical awareness and appreciation of best practice and relevant standards
-Investigate particular techniques and methods for the construction of safe systems, possibly involving the construction of a prototype
-Evaluate the outcome of their work, drawing conclusions and suggesting possible further work in the area

The project(s) address(es) a technical problem concerned with real issues in the automotive domain. It should, if possible, include the development and application of a practical method, technique or system. It is a natural progression from the taught modules, and builds on material covered in them. It addresses the problem from an automotive system safety perspective, including hardware, software or human factors. It will typically have an industrial flavour, students are encouraged, with the help of their managers and academic staff, to select a project which is relevant to their own work.

The project begins at the start of the Autumn term after completion of the taught modules, and lasts 12 months part-time. There are three weeks attendance at York during the project, for progress assessment and access to library facilities: in October near the start of the project; and in the following January and July.

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This twelve-month MSc degree in System on Chip uses cutting-edge and industry standard tools and methods to give you a thorough grounding in system on chip design techniques, including modules on nanoelectronic devices, digital system design and electronic design automation. Read more

This twelve-month MSc degree in System on Chip uses cutting-edge and industry standard tools and methods to give you a thorough grounding in system on chip design techniques, including modules on nanoelectronic devices, digital system design and electronic design automation. Optional modules include cryptography and medical electronic technologies.

Introducing your degree

Take an integrated design approach and develop the skills to respond to the ever-evolving systems field.

Overview

View the programme specification document for this course

Systems in mobile telephones, computers, cars and aircraft are shrinking, with many parts of the design now implemented as a single integrated circuit. This course will enable you to develop the rapidly changing skills that are required to support this.

The programme focuses on system on chip design techniques, with extensive practical use of cutting-edge and industry-standard tools and methods. You will be taken through the complete system on chip design process, from concept to implementation.

View the programme specification document for this course

Career Opportunities

This programme provides an excellent platform for further research in either industry or academia.

Graduates from our MSc programme are employed worldwide in leading companies at the forefront of technology. ECS runs a dedicated careers hub which is affiliated with over 100 renowned companies including:

  • IBM
  • Arm
  • Microsoft Research
  • Imagination Technologies
  • Nvidia
  • Samsung
  • Google

Visit our careers hub for more information.

Through an extensive blend of networks, mentors, societies and our on-campus startup incubator, we also support aspiring entrepreneurs looking to build their professional enterprise skills. Discover more about enterprise and entrepreneurship opportunities.



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Created in the context of the rapid advancement of the renewable-energy industry, this Masters programme investigates both renewable energy and systems technologies. Read more

Created in the context of the rapid advancement of the renewable-energy industry, this Masters programme investigates both renewable energy and systems technologies.

It is designed to build your competence and confidence in the R&D and engineering tasks that are demanded of scientific engineers in the renewable and sustainable-development sector.

Programme structure

This programme is studied full-time over one academic year and part-time students must study at least two taught technical modules per academic year. It consists of eight taught modules and a dissertation.

Example module listing

The following modules are indicative, reflecting the information available at the time of publication. Please note that not all modules described are compulsory and may be subject to teaching availability and/or student demand.

Facilities, equipment and academic support

Modules related to the different groups are taught by a total of six full-time members of staff and a number of visiting lecturers.

As part of their learning experience, students have at their disposal a wide range of relevant software needed to support the programme material dissertation projects. In recent years, this work included the design of various knowledge-based and business systems on the internet, the application of optimisation algorithms, and semantic web applications.

Numerous laboratory facilities across the Faculty and the University are also available for those opting for technology-based projects, such as the process engineering facility, a control and robotics facility and signal processing labs.

The work related to the MSc dissertation can often be carried out in parallel with, and in support of, ongoing research. In the past, several graduates have carried on their MSc research to a PhD programme.

Career prospects

Engineers and scientists are increasingly expected to have skills in information systems engineering and decision-support systems alongside their main technical and/or scientific expertise.

Graduates of this programme will be well prepared to help technology-intensive organisations make important decisions in view of vast amounts of information by adopting, combining, implementing and executing the right technologies.

Educational aims of the programme

This programme investigates both renewable energy and systems technologies in order to produce scientific researchers and engineers who are competent in the R&D and engineering tasks applicable to the renewable energy and sustainable development sectors.

Its primary aims lie in developing a global understanding of the major types of renewable energy technologies, in-depth knowledge of the technology for biomass-based renewable energy, and knowledge and skills in systems modelling and optimisation.

A balanced curriculum will be provided with a core of renewable energy and systems engineering modules supplemented by a flexible element by way of elective modules that permit students to pursue an element of specialisation relevant to their backgrounds, interests and/or career aspirations.

An integrated approach is taken so as to provide a coherent view that explores the interrelationships between the various components of the programme.

Programme learning outcomes

Knowledge and understanding

The programme aims to develop the knowledge and understanding in both renewable energy and systems engineering. The key learning outcomes include:

  • State-of- the-art knowledge in renewable energy technologies, in terms of: the sources, technologies, systems, performance, and applications of all the major types of renewable energy; approaches to the assessment of renewable energy technologies; the processes, equipment, products, and integration opportunities of biomass-based manufacturing
  • State-of- the-art knowledge in process systems engineering methods, in the areas of: modelling and simulation of process systems; mathematical optimization and decision making; process systems design
  • Advanced level of understanding in technical topics of preference, in one or more of the following aspects: process and energy integration, economics of the energy sector, sustainable development, supply chain management

Intellectual / cognitive skills

The programme aims to strengthen cognitive skills of the students, particularly in the aspects of problem definition, knowledge and information acquiring, synthesis, and creativity, as collectively demonstrable through the successful completion of the research dissertation. The key learning outcomes include the abilities to:

  • Select, define and focus upon an issue at an appropriate level
  • Collect and digest knowledge and information selectively and independently to support a particular scientific or engineering enquiry
  • Develop and apply relevant and sound methodologies for analysing the issue, developing solutions, recommendations and logical conclusions, and for evaluating the results of own or other’s work

Professional practical skills

The programme primarily aims to develop skills for applying appropriate methods to analyze, develop, and assess renewable technologies and systems. The key learning outcomes include the abilities to:

  • Assess the available renewable energy systems
  • Design and select appropriate collection and storage, and optimise and evaluate system design
  • Apply generic systems engineering methods such as modelling, simulation, and optimization to facilitate the assessment and development of renewable energy technologies and systems

Key / transferable skills

The programme aims to strengthen a range of transferable skills which are relevant to the needs of existing and future professionals in knowledge intensive industries irrespective of their sector of operation. The key learning outcomes include the further development of the skills in the following areas:

  • Preparation and delivery of communication and presentation
  • Report and essay writing
  • Use of general and professional computing tools
  • Collaborative working with team members
  • Organizing and planning of work
  • Research into new areas, particularly in the aspect of literature review and skills acquisition

Global opportunities

We often give our students the opportunity to acquire international experience during their degrees by taking advantage of our exchange agreements with overseas universities.

In addition to the hugely enjoyable and satisfying experience, time spent abroad adds a distinctive element to your CV.



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Upgrade is possible to the Diploma SCSE and MSc SCSE courses. This modular postgraduate Certificate course is designed to prepare students for work in the demanding field of Systems Safety Engineering (SSE) by exposing them to the latest science and technology within this field. Read more
Upgrade is possible to the Diploma SCSE and MSc SCSE courses.

This modular postgraduate Certificate course is designed to prepare students for work in the demanding field of Systems Safety Engineering (SSE) by exposing them to the latest science and technology within this field. The discipline of SSE has developed over the last half of the twentieth century. It can be viewed as a process of systematically analysing systems to evaluate risks, with the aim of influencing design in order to reduce risks, i.e. to produce safer products. In mature industries, such as aerospace and nuclear power, the discipline has been remarkably successful, although there have been notable exceptions to the generally good safety record, e.g. Fukushima, Buncefield and the Heathrow 777 accident.

Various trends pose challenges for traditional approaches to SSE. For example, classical hazard and safety analysis techniques deal poorly with computers and software where the dominant failure causes are errors and oversights in requirements or design. Thus these techniques need extending and revising in order to deal effectively with modern systems. Also, in our experience, investigation of issues to do with safety of computer systems have given some useful insights into traditional system safety engineering, e.g. into the meaning of important concepts such as the term hazard. The optional module allows students to investigate such areas as the contribution of software, human factors or operational factors to SSE in more depth.

Learning Outcomes

The course aims to provide participants with a preliminary grounding and practical experience in the use of state-of-the-art techniques for development of safety critical systems, together with an understanding of the principles behind these techniques so that they can make sound engineering judgements during the design and deployment of such a system. Graduates completing the course will be equipped to participate and in safety-critical systems engineering related aspects of industry and commerce.

New areas of teaching will be developed in response to new advances in the field as well as the requirements of the organisations that employ our graduates.

The course aims to equip students with knowledge, understanding and practical application of the essential components of System Engineering, to complement previously gained knowledge and skills. A York System Safety Engineering graduate will have a preliminary knowledge and understanding of the essential areas, as represented by the core modules.

Transferable Skills

Information-retrieval skills are an integrated part of many modules; students are expected to independently acquire information from on-line and traditional sources. These skills are required within nearly all modules.

Numeracy is required and developed in some modules. Time management is an essential skill for any student in the course. The formal timetable has a substantial load of lectures and labs. Students must fit their private study in around these fixed points. In addition, Open Assessments are set with rigid deadlines which gives students experience of balancing their time between the different commitments.

All students in the University are eligible to take part in the York Award in which they can gain certified transferable skills. This includes the Languages for All programme which allows students to improve their language skills.

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Nowadays, the term Healthcare indicates a process that requires to create a new complex and multifactorial system in which technological factors, organizational, and human dimensions must find a balanced mix to provide safe and high quality care for patients. Read more

Nowadays, the term Healthcare indicates a process that requires to create a new complex and multifactorial system in which technological factors, organizational, and human dimensions must find a balanced mix to provide safe and high quality care for patients. This also requires clinically effective and well-designed medical devices, as well as effective and reliable healthcare services based upon innovative technologies and systems, and the related organizational models to be implemented.

In the last 20 years the technological development of biomedical devices has reached an enormous progress, in terms of high performance and reliability, and also for safety and quality. Today medicine involves the use of many equipment and devices for the diagnosis, therapy and rehabilitation and to support the correct clinical decision or the best treatment. Healthcare industry is requiring this multidisciplinary approach and know-how.

The Specializing Master Product Service System Design for Healthcare aims at providing the students with the fundamentals for designing biomedical devices, starting from the basics of methodologies and technologies for the measurement of physiological signals in clinical and home care applications.

Thanks to the proposed educational activity in the areas of:

  • Research and development,
  • Testing and certification,
  • Regulatory systems and reference models,
  • Marketing and analysis of user needs,

the main career opportunities with a strong orientation to the USER Centred Design and product innovation, process and service with leading-edge technologies, are expected in the following areas:

  • Industrial and Services: for R&D, market analysis and user needs, 
  • Clinical: design and application of systems for diagnosis, cure and theraphy, prevention and rehabilitation,
  • Policy makers and/or policy managers in Healthcare and in technologies for healthcare.

Degree awarded

The Specializing Master grants 62 CFU, equivalent to 62 ECTS. Upon completion, students earn a Politecnico di Milano first-level Specializing Master diploma.

Didactics

The training modules are designed to meet the need for an international panorama of growing competitiveness in which the designer should be able to increase the product value by generating innovations thanks to the technology available.

The mostly used devices will be analyzed and presented during the course. Standards, norms and reference services are another fundamental part of the Specializing Master providing the reference framework for how to develop devices and products for healthcare. Design Methods and Ergonomics will be also presented as reference methodologies in designing innovative product-service systems in healthcare, as well as to support methodologically and with reference data the design of new systems. For a better understanding and participation, visits to medical facilities (hospitals and laboratories) will be proposed.

A final workshop to develop innovative systems will conclude the Specializing Master as practical demonstration of the achieved goals. A stage in selected companies/institutions will make the students to experience the acquired knowledge.

Attendance to the activity is mandatory for at least 75% of the course. 

The modules will cover the following teaching areas:

  • Organizational and management models of the new healthcare processes
  • Technologies and systems
  • Environments and Users
  • Design Methodologies, Standards, Ergonomics in Healthcare Design
  • standard and innovative clinical Challenges
  • Design of products and systems for Healthcare

Internship of 325 hours.

For more info, please visit http://polidesign.net/en/healthcare



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This programme produces engineers who are highly skilled in the techniques of manufacturing management and its related technologies, providing the basis for effective careers as managers who can meet the challenges of the rapidly changing global manufacturing industry. Read more
This programme produces engineers who are highly skilled in the techniques of manufacturing management and its related technologies, providing the basis for effective careers as managers who can meet the challenges of the rapidly changing global manufacturing industry.

Core study areas include manufacturing system and process modelling, lean and agile manufacture engineering management and business studies, product information systems - product lifecycle management, the innovation process and project management, sustainable development, advanced manufacturing processes and automation, additive manufacturing and a project.

See the website http://www.lboro.ac.uk/study/postgraduate/programmes/departments/mechanical-manufacturing/advanced-manuf-eng-mgt/

Programme modules

- Manufacturing System and Process Modelling
The objective of this module is to provide an understanding of manufacturing and its management that recognises breadth and depth of required resources and information. This is done through developing an understanding of the hierarchy of computer based modelling relevant to manufacturing, ranging from the detail of material behaviour in processed parts, through macroscopic process models to the integration of processes within manufacturing systems and higher level business processes.

- Lean and Agile Manufacture
This module allows students to gain an understanding of lean and agile concepts in the manufacturing business, including its distribution chains. Students will learn to specify, design and evaluate an appropriate lean or agile business system.

- Engineering Management and Business Studies
The aim of the module is to introduce the concepts of management techniques that are applicable to running an engineering company. Students will learn to evaluate commercial risk, plan and organise engineering activities for improved company effectiveness and communicate technical and business information to ensure maximum impact.

- Product Information Systems – Product Lifecycle Management
The objectives of this module are for students to understand and critically evaluate the emerging product information systems for designers in the form of Product Lifecycle Management (PLM) systems. Students will learn to use modern information and process modelling techniques to define the information integration and workflow requirements of a PLM configuration.

- The Innovation Process and Project Management
Students will establish a clear overview of the innovation process and an understanding of the essential elements within it. They will learn strategies for planning and carrying out innovative projects in any field.

- Sustainable Development: The Engineering Context
This module provides students with an understanding of the principles and practices of sustainable development and to provide them with an understanding of how engineers can help manufacturing businesses develop into more sustainable enterprises.

- Advanced Manufacturing Processes and Automation
Students will gain an in-depth knowledge of state-of-the-art manufacturing techniques, processes and technologies. They will learn to understand and critically evaluate advanced manufacturing processes and technologies, assessing their advantages and disadvantages.

- Additive Manufacturing
The module will introduce and develop the concepts of Additive Manufacturing (AM) and demonstrate the different AM techniques available at Loughborough University. The module will emphasise the strengths and weaknesses of the various technologies and highlight applications and case studies from the AM industry.

- Projects
In addition to the taught modules, all students undertake an individual major project. Part-time students normally undertake a major project that is based on the needs of their employing company.

How you will learn

You will learn through a carefully balanced combination of lectures, in-class guided workshops, hands-on computer modelling and independent research. Following eight taught modules, students pursue an individual project typically based on the diverse range of industrially focused manufacturing research strengths within the School. Part time students may base their projects on particular needs of their current employer.

Examinations are in January and May / June with coursework throughout the programme. The project is assessed by written report, presentation and exhibition.

Careers and further study

Within national or multinational manufacturing industry companies working as a Manufacturing Engineer, Project Engineer, Systems Analyst or Software Development Specialist. Graduates may also study for an MPhil or PhD with the School’s research groups.

Scholarships

The University offers over 100 scholarships each year to new self-financing full-time international students who are permanently resident in a country outside the European Union. These scholarships are to the value of 25% of the programme tuition fee and that value will be credited to the student’s tuition fee account.
You can apply for a scholarship once you have received an offer for a place on this programme.

Why Choose Mechanical and Manufacturing Engineering at Loughborough?

The School of Mechanical and Manufacturing Engineering is a leader in technological research and innovation, with extensive national and international industrial links, and a long standing tradition of excellent teaching.

Our Industrial Advisory Committee, comprising of engineers at senior levels in the profession, ensures that our programmes contain the optimal balance of subjects and industrial relevance, with our programmes accredited by the Institution of Mechanical Engineers, Institution of Engineering and Technology and Institution of Engineering Designers.

- Facilities
The School has laboratories devoted to disciplines such as; dynamics and control, automation, fluid mechanics, healthcare engineering, internal combustion engines, materials, mechatronics, metrology, optical engineering, additive manufacturing, sports engineering, structural integrity and thermodynamics.

- Research
The School has a busy, multi-national community of well over 150 postgraduate research students who form an important part of our internationally recognised research activities.
We have seven key research centres (Electronics Manufacture, Intelligent Automation, Regenerative Medicine Embedded Intelligence, High Efficiency SCR for Low Emission Vehicles and High Value Manufacturing Catapult Centre) and we are a lead governing partner in the newly formed UK Manufacturing Technology Centre.

- Career prospects
90% of our graduates were in employment or further study within six months of graduating. Our graduates go on to work with companies such as Airbus, BAE Systems, Caterpillar, EDF Energy, Ford, IBM, Jaguar Land Rover, Millbrook Proving Ground, Rolls Royce and Tata Steel.

Find out how to apply here http://www.lboro.ac.uk/study/postgraduate/programmes/departments/mechanical-manufacturing/advanced-manuf-eng-mgt/

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We worked with industry professionals to develop an MSc Applied Instrument and Control programme that is accredited by the Institute of Measurement and Control (InstMC). Read more

We worked with industry professionals to develop an MSc Applied Instrument and Control programme that is accredited by the Institute of Measurement and Control (InstMC). It covers both the latest developments in the field and the industry knowledge we've gained through years of experience.

You'll acquire a specialised skillset and expertise that's highly desirable to employers, making you a competitive candidate for rewarding careers in many industries, with oil and gas pathways available. The programme draws on relevant case studies with real-world implications, so you'll gain practical knowledge that you can apply on the job from day one.

The programme also fulfils the Engineering Council's further learning requirements for registration as a Chartered Engineer.

  • Gain a solid foundation in measurement science and control theory
  • Practise data acquisition and instrument networking
  • Study analysis of systems for condition monitoring
  • Investigate fault detection and control system design
  • Complete a hands-on project in the industry for experiential learning

At GCU, you'll find a welcoming community of people like yourself - hardworking, career-focused individuals with the vision and discipline to pursue meaningful work. We'll help you develop the tools to be successful, in your career and in your life.

We hope you'll use those tools to make a positive impact on your community and contribute to the common good through everything you do.

What you will study

The curriculum has been developed in consultation with industry and can be broadly grouped in three areas: the introduction of new facts and concepts in measurement and control; the application of facts and concepts to real measurement problems and systems; and subjects which are of general importance to the professional engineer, for example safety and safety management and management ethics and project planning.

Students complete eight taught modules - four in trimester A and four in trimester B; and a Masters project in trimester C.The MSc project will be carried out at the student's workplace; this can be in an area relevant to the company's production/maintenance function, thus providing maximum benefit to both the company and the individual.

Control Systems

Consolidates advanced classical and modern control design techniques emphasising the practical considerations in applying control design in an industrial environment. The appropriateness and difficulties encountered in applying various design techniques in practice will be explored. In particular system sensitivity, robustness and nonlinearity will be studied.

Data Acquisition and Analysis

Develops the ability to evaluate, in a given situation, the most appropriate strategy for acquiring data and understand the merits of this strategy with respect to other approaches. A range of modern time and frequency domain analysis techniques will also be discussed.

Industrial Case Studies

Following on from the foundation in measurement and instrumentation provided by the Measurement Theory and Devices module, students will now be equipped to study in depth instrumentation in industrial processes. This module will cover aspects of designing sensor systems for industrial measurements, instrument control, system troubleshooting and optimisation in industrial applications.

Distributed Instrumentation

Develops the ability to evaluate, in a given situation, the most appropriate strategy for acquiring and transmitting data and understand the merits of this strategy with respect to other approaches. A wide range of different instrument communication and networking techniques will be studied. In addition the module provides practical experience of hardware setup and software development, relating to these techniques.

Industrial Process Systems

Identification and system modelling from real data play an important role in this module. This approach thus leads to more complex and realistic models that can be used to design more robust and reliable controllers that take into account problematic physical effects such as time-delays and sensor noise. The module will cover more advanced aspects of control design such as feed forward and multivariable control.

Measurement Systems

A range of advanced measurement systems will be studied in depth. Sensors, signal processing, low-level signal measurements, noise-reduction methods and appropriate measurement strategies will be applied to industrial and environmental applications. The influence of environmental factors and operation conditions will be considered in relation to the optimisation of the measurement system.

Measurement Theory and Devices

Adopts a generalised approach to measurement theory and devices, allowing students to become familiar with the characteristics of measurement systems in terms of the underlying principles. In this way, the students will be able to develop a systems approach to problem solving. They should find this methodology to be a considerable benefit to them when they have to apply their expertise to solving more complex industrial measurement problems.

Professional Practice

Develops the students' ability to select, develop and plan an MSc research project, to research and critically analyse the literature associated with the project and to present research findings effectively, it will also provide students with the ability to apply a competent process of thinking to project planning and give them a critical understanding of safe and ethical working.

Accreditation

The programme is accredited by the Institute of Measurement and Control (InstMC) as meeting the Engineering Council’s further learning requirements for registration as a Chartered Engineer.

Graduate prospects

The MSc Applied Instrumentation and Control offers graduates a highly focused skillset that's valuable to an extremely wide range of industries - any business that benefits from the measurement of process variables and environmental factors. For instance, chemicals, pharmaceuticals, optics and optoelectronics, medical instrumentation and more.

Across these industries, you might focus on computer-controlled instrumentation systems, process instrumentation, technical management and sales, process control and automation, sensor development and manufacturing, instrument networking, industrial development or test and measurement systems.

You might also pursue a career with a company that designs and manufactures measurement systems.



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Who is it for?. The course is for motivated students who enjoy working within high-pressure environments often to tight deadlines. Read more

Who is it for?

The course is for motivated students who enjoy working within high-pressure environments often to tight deadlines. You will need a good undergraduate degree as well as the tenacity and patience to understand business systems and the ability to adapt to constant change.

Objectives

There is a common misconception in building business systems: that users know their requirements. Often they don’t. This postgraduate Business Systems Analysis programme has been designed to address this problem.

The MSc in Business Systems Analysis and Design is not about developing algorithms and coding. We work with technology but we are not technicians because we know that to become an IT consultant or business analyst, you need to understand the disparate areas that make up the discipline. This is a Masters degree where you will design a business system; in order to do this you will unpick the information infrastructure to find out if the system works.

Analysing a business system is a process that demands constant re-evaluation. By investigating system requirements, considering how information flows through it, and exploring the pitfalls that emerge within user hierarchies, at City we examine the business system as a whole. This approach is essential to respond to rapid business change.

These are some of the questions the course poses:

  • What is the right system to address the problem?
  • Does the system meet the needs of the business now and will it be able to adapt in the future?
  • How is information flowing within the system?
  • How will users interact with the system throughout the project life cycle?

Accreditation

Accredited by BCS, The Chartered Institute for IT for the purposes of partially meeting the academic requirement for registration as a Chartered IT Professional.

Internships

As a postgraduate student on a Computing and Information Systems course, you will have the opportunity to complete up to six months of professional experience as part of your degree.

Our longstanding internship scheme gives you the chance to apply the knowledge and skills gained from your taught modules within a real business environment. An internship also provides you with professional development opportunities that enhance your technical skills and business knowledge.

Internships delivered by City, University of London offer an exceptional opportunity to help you stand out in the competitive IT industry job market. The structure of the course extends the period for dissertation submission to January, allowing you to work full-time for up to six months. You will be supported by our outstanding Professional Liaison Unit (PLU) should you wish to consider undertaking this route.

More information on postgraduate internships.

Teaching and learning

We provide a diversity of teaching approaches so you get a diversity of learning experiences in the form of traditional lectures, live classroom demonstrations, tutorials, laboratories, and TV studio role-playing. We encourage you to engage with the material in an active way. As a postgraduate student, we expect you to take responsibility for your own learning and use non-timetabled hours for your own private study or group interactions.

You will be assessed in a variety of ways from coursework and laboratory work to presentations, examinations and a project dissertation. By successfully completing eight taught modules and the research project you will be awarded a Master of Science (MSc) degree. All modules in this course are supported by Moodle, City's online learning environment.

The course is available full time (12 months) and part time (up to 28 months - two days a week). The Department is aware that this involves considerable commitment from part-time students, and we try to be as flexible as we can so you can successfully combine your work and study.

By completing eight modules and the dissertation you will be awarded 180 credits and a Masters level qualification. Alternatively, if you do not complete the dissertation but have successfully completed the eight modules, you will be awarded 120 credits and a postgraduate diploma. If you successfully complete four modules (60 credits) you will be awarded a postgraduate certificate.

Modules

There are six core modules and four electives from which you can choose two topics. Practical work is emphasised throughout the degree programme to develop your understanding and skills, which is strengthened by interactive teamwork. The course has an excellent track record in producing employable hybrid IT/business professionals.

In the industry you need to communicate your expertise in lay terms. The modules give you experience in working on group projects so you can manage roles and responsibilities and build a set of professional values. The core content will also give you the ability to set strategies, manage information flows and deal with problems such as overload and risk. 

The course develops:

  • Skills in business awareness, design and consultancy to facilitate the alignment of IT systems and services to business objectives
  • The specialist understanding of theoretical principles in business systems analysis and design
  • Technical skills, through practical laboratory work, so you can apply your knowledge of IT and how it affects business competitiveness.

The course will give you specialist knowledge ranging from business systems requirements analysis and design, software systems engineering, data modelling to business intelligence, project management and business engineering with ERP solutions.

Career prospects

As a City graduate you leave with front-line knowledge. With insight from major areas of research including software engineering, human-computer interaction and artificial intelligence, you will be able to assimilate your skills within the industry and offer a future-focused mindset.

From Unilever to HMV and from Accenture to ITN, City graduates are employed across sectors in consultancy companies, software houses, the public services, telecommunications, multinational manufacturers, and large retailers. The programme will help you build a strong peer network as well as a solid network of contacts for your continued career development.



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MSc Manufacturing Management (online) develops skills and knowledge and specifically focuses on the areas of business, operations management, information systems, and product development and quality systems. Read more
MSc Manufacturing Management (online) develops skills and knowledge and specifically focuses on the areas of business, operations management, information systems, and product development and quality systems.

It will also equip you with the knowledge and understanding for a career in technical and engineering management. You will gain knowledge and understanding of relevant techniques in:
-The analysis of business strategy and planning
-Commercial engineering practice
-Product definition
-Process system design
-Understanding of resource management through planning and process control

Why choose this course?

MSc Manufacturing Management has been running successfully on campus for ten years by the School of Engineering and Technology. With their progressive approach and career-relevant programmes, the School of Engineering and Technology has an international reputation for attracting students and developing talented graduates who are highly sought after by employers.

Building on these successes this on campus Master's course has now be developed for 100% online delivery. Ideal if you do not wish to put your career on hold for study or unable to get to our campus in Hatfield, UK.

Professional Accreditations

This course is accredited by the Institute of Manufacturing (IManf). Graduates of this programme will be entitled to "Fellow membership of The Institute of Manufacturing" and once they can demonstrate 2 years’ work experience in Manufacturing Management they will be entitled to apply for the award of “Certified Manufacturing Practitioner”.

Careers

Graduates will have acquired the intellectual, practical and transferable skills necessary for the analysis and synthesis of problems in engineering and manufacturing.

You may then be able to work in a range of disciplines within a variety of industries from specialist technical roles to positions of management responsibility.

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