Programme Specifications
Engineering Physics (with integrated year in industry)
Information provided by Department of Physics:
Year in industry
Information provided by Department of Physics:
This Programme Specification has been designed to conform to the QAA Benchmark Statements for Physics and Engineering.
Information provided by Department of Physics:
September 2023
Information provided by Department of Physics:
1. To provide a thorough understanding of the core principles of physics
and its application in engineering and technology.
2. To apply
research activity to inform the learning and teaching.
3. To produce graduates with competence in subject-specific skills: problem solving, scientific methodology, experimental techniques, modelling, numerical and computational methods.
4. To provide training in, and use of, a wide range of transferable key skills needed for employment at a graduate level.
5. To develop a systematic approach and the logical and practical steps necessary for, often complex, concepts to become reality.
6. To gain skills in solving problems by applying their numerical, computational, analytical and technical skills, using appropriate tools.
7. To provide awareness of management, risk, health and safety and wider professional responsibilities.
8. To develop a professional outlook and ability to work in teams as effective communicators.
9. To present advanced engineering physics topics and enhanced subject skills that are informed by current research to students who wish to become professionals in academic research or industry.
10. To enable students to learn about an organisation and its area of work, providing an opportunity to evaluate future career paths.
Information provided by Department of Physics:
The programme provides opportunities for students to develop and demonstrate knowledge and understanding skills, qualities and other attributes in the following areas:
Information provided by Department of Physics:
By the end of their programme, all students are expected to be able to demonstrate:
A1-A7
A1 Understanding of fundamental concepts of a core of physics
A2 Ability to apply these fundamental concepts to advanced topics approaching the frontiers of the subject
A3 Appropriate working knowledge of mathematical techniques
A4 A range of skills in practical physics, including experimental work, data manipulation and numerical modelling
A5 Ability to interpret topics and results in terms of relevant literature and to construct and communicate the arguments logically
A6 Appreciation of professional issues related to the subject
A7 Knowledge and understanding of advanced physics areas, and ability to apply enhanced subject-specific skills
Learning and Teaching
Teaching and learning methods used to enable the outcomes to be achieved and demonstrated encompass:
• Lectures (A1-A7)
• Problem-solving workshops (A1,A3-A4,A7)
• Feedback classes (A1-A3)
• Laboratory work (A4)
• Group and individual project work (A4-A5,A7)
• Job application (A5)
Assessment Strategies and Methods
Assessment methods include:
• Time-constrained examinations (A1-A3,A5-A7)
• Open- and closed-book tests (A1-A3)
• Examples sheets (A1-A3,A7)
• Laboratory diaries and reports (A4)
• Literature searches and reviews (A5-A7)
• Project reports (A4-A5,A7)
• Oral/Poster presentations (A4-A7)
• Mathematical and numerical exercises (A1,A3,A7)
• Computational exercises (A4,A7)
Information provided by Department of Physics:
10.2.1 Intellectual Skills
By the end of their programme, all students are expected to be able to demonstrate:
B1-B6
B1 Analytical and problem-solving skills
B2 Numerical skills
B3 Ability to plan, execute and report on an experiment or investigation
B4 Capability of independent work and group work in physics
B5 Ability to develop mathematical and computing skills used to model and describe the physical world
B6 Ability to plan, execute and report on an extended individual research-led project
Learning and Teaching
Teaching and learning methods used to enable the outcomes to be achieved and demonstrated include:
• Problem-solving workshops (B1-B2,B5)
• Laboratory classes (B3-B5)
• Group and individual projects (B1-B6)
• Lectures (B1-B2)
Assessment Strategies and Methods
Assessment methods include:
• Example sheets (B1-B2)
• Laboratory diaries and reports (B3)
• Group and individual project reports (B3-B6)
• Time constrained examinations (B1-B2)
• Oral presentations (B3,B6)
• Open- and closed-book tests (B1-B2)
10.2.2 Professional practical skills / Discipline Specific Skills
By the end of their programme, all students are expected to be able to demonstrate:
C1-C7
C1 Competency in working in a practical laboratory
C2 Ability to estimate uncertainties in measurements and results
C3 Ability to assess and minimise risks in practical situations
C4 The use of numerical, IT and computing skills to support practical work
C5 Competency in recording practical work in laboratory diaries and reporting on the work in written accounts and oral presentations
C6 Competency in carrying out a literature review and reporting on an extended major project via written and oral presentations
C7 The use of industry-led approaches, concepts, skills, methods and theories in a work-based context
Learning and Teaching
Teaching and learning methods used to enable the outcomes to be achieved and demonstrated include:
• Laboratory classes (C1-C5)
• Project work (C1-C6)
• Oral presentations (C5-C6)
• Lectures and workshops (C2-C6)
• Integrated year in industry (C7)
Assessment Strategies and Methods
Assessment methods include:
• Laboratory diaries and reports (C1-C5)
• Group and individual project reports (C1-C6)
• Oral presentations (C5-C6)
• Coursework examples (C2)
• Computational and numerical exercises (C4)
• Integrated year in industry reports (C7)
Information provided by Department of Physics:
By the end of their programme, all students are expected to be able to demonstrate:
D1-D7
D1 Problem-solving, analytical and investigative skills
D2 Ability to work independently and in groups
D3 Time-management and planning skills
D4 Ability to communicate in writing and orally
D5 Ability to apply IT skills
D6 Professional behaviour including appreciation of the requirements: to be objective, unbiased and truthful; to acknowledge the work of others; and to adopt a safe working environment
D7 Valued transferable and professional skills during a work placement,
providing a competitive edge in the graduate job market
Learning and Teaching
Teaching and learning methods used to enable the outcomes to be achieved and demonstrated include:
• Project work (D1-D6)
• Laboratory classes (D1-D6)
• Lectures (D1)
• Workshops (D1)
• Integrated year in industry (D7)
Assessment Strategies and Methods
Assessment methods include:
• Group and individual project work (D1-D6)
• Laboratory diaries and reports (D1,D4-D6)
• Oral presentations (D4)
• Written project reports (D4,D6)
• Example sheets (D1-D2)
• Integrated year in industry reports (D7)
MENG Engineering Physics (with integrated year in industry) [168F]
Academic Year: 2024/2025Integrated Masters scheme - available from 2016/2017
Duration (studying Full-Time): 5 years