Programme Specifications

Space Science and Robotics


1 : Awarding Institution / Body
Aberystwyth University

2a : Teaching Institution / University
Aberystwyth University

2b : Work-based learning (where appropriate)


Information provided by Department of Physics:


Information provided by Department of Computer Science:

N/A



3a : Programme accredited by
Aberystwyth University

3b : Programme approved by
Aberystwyth University

4 : Final Award
Bachelor of Science

5 : Programme title
Space Science and Robotics

6 : UCAS code
FH56

7 : QAA Subject Benchmark


Information provided by Department of Physics:

The physics component is compatible with QAA Benchmark statement for Physics, Astronomy and Astrophysics.

Information provided by Department of Computer Science:

The Computer Science part of this Programme Specification has been designed to conform to the QAA Benchmark statement for Computing. 

8 : Date of publication


Information provided by Department of Physics:

September 2023

Information provided by Department of Computer Science:

September 2023

9 : Educational aims of the programme


Information provided by Department of Physics:

1. To provide, through an Institute of Physics recognised programme, knowledge and understanding of fundamental concepts and techniques of a core of physics, computer science and planetary science topics.
2. To provide working knowledge of how these concepts can be applied to planetary exploration by robotic methods. The course follows a specially tailored combination of physics, solar system and planetary science and computer science modules.
3. To apply research activity to inform the learning and teaching.
4. To produce graduates with competence in subject-specific skills: problem solving, scientific methodology, experimental techniques, modelling, numerical and computational methods.
5. To provide training, and use of, in a wide range of transferable key skills needed for employment at a graduate level.

Information provided by Department of Computer Science:

The aim of this degree scheme is to produce good quality computing graduates with a strong software engineering bias who are highly sought after by industry. The scheme has a well-defined set of core modules that must be studied to ensure that graduates have a wide range of experiences with a good grounding in the major fields of Computing.

This scheme is a joint scheme with the Physics Department and is an outgrowth of the two departments' international reputation in the area of space science and space robotics. Due to its intensive nature, this scheme has very little choice of elective available. Students may enter the scheme with different backgrounds (A level Physics or A level Computer Science) and the first year is tailored accordingly.

The scheme has  the following fundamental aims

  • to enable students to develop the skills to be expected of any graduate, including the following skills: to reason logically and creatively; to communicate clearly both orally and in writing; and to be able to obtain and interpret information from a wide range of sources

  • to equip students with the skills necessary to program in high-level computing languages

  • to enable students to understand and apply the range of principles and tools available to the software engineer

  • to  give students a good grounding in the major fields of Computing through a wide range of experiences

  • to produce graduates who have the potential to succeed in a rapidly changing industry

  • to produce graduates with an understanding of the issues of space science and robotics.



10 : Intended learning outcomes


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 Computer Science:

The programme provides opportunities for students to develop and demonstrate knowledge and understanding, skills, qualities and other attributes in the following areas as identified in the QAA benchmark for Computing which may be found on-line at:

https://www.qaa.ac.uk/the-quality-code/subject-benchmark-statements/computing

and is displayed in the tables below.



10.1 : Knowledge and understanding


Information provided by Department of Physics:

By the end of their programme, all students are expected to be able to demonstrate:

A1-A5

A1 Understanding of fundamental concepts of a core of physics relevant to space science and technology
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

Learning and Teaching
Teaching and learning methods used to enable the outcomes to be achieved and demonstrated encompass:
• Lectures (A1-A5)
• Problem-solving workshops (A1,A3-A4)
• Feedback classes (A1-A3)
• Laboratory work (A4)
• Group and individual project work (A4-A5)

Assessment Strategies and
Methods Assessment methods include:
• Time-constrained examinations (A1-A3,A5)
• Open- and closed-book tests (A1-A3)
• Examples sheets (A1-A3)
• Laboratory diaries and reports (A4)
• Literature searches and reviews (A5)
• Project reports (A4-A5)
• Oral/Poster presentations (A4-A5)
• Mathematical and numerical exercises (A1,A3)
• Computational exercises (A4)

Information provided by Department of Computer Science:

The scheme focuses on the following components of the QAA benchmark:

  • Hardware

Computer architecture and construction

Processor architecture

Software

Programming languages

Software tools and packages

Computer applications

Structuring of data and information


  • Communications & interaction

Computer networks, distributed systems

Human-computer interaction

Operating systems

  • Practice

Problem identification and analysis

Design, development, testing and evaluation

Management and organisation

Professionalism and ethics

Commercial and industrial exploitation

  • Theory

Algorithm design and analysis

Modelling and frameworks

Analysis, prediction and generalisation

Human behaviour and performance

And will equip students in the following Computer Related Cognitive areas:

Knowledge and understanding: demonstrate knowledge and understanding of essential facts, concepts, principles and theories relating to Computing and computer applications.

Modelling: use such knowledge and understanding in the modelling and design of computer-based systems for the purposes of comprehension, communication, prediction and the understanding of trade-offs.

Requirements, practical constraints and computer-based systems (including computer systems, information systems, embedded systems and distributed systems) in their context: recognise and analyse criteria and specifications appropriate to specific problems, and plan strategies for their solution.

Critical evaluation and testing: analyse the extent to which a computer-based system meets the criteria defined for its current use and future development.

Methods and tools: deploy appropriate theory, practices and tools for the specification, design, implementation and evaluation of computer-based systems.

Reflection and communication: present succinctly to a range of audiences (orally, electronically or in writing) rational and reasoned arguments that address a given information handling problem or opportunity. This includes assessment of the impact of new technologies.

Professional considerations: recognise the professional, moral and ethical issues involved in the exploitation of computer technology and be guided by the adoption of appropriate professional, ethical and legal practices.

The first year provides a foundation of programming and computer infrastructure.

The second year builds on the information and techniques studied in the first year by expanding them further and introducing more specialised subjects.

The third year introduces the most advanced topics of the degree scheme and includes a required individual project that allows the student to gain deeper knowledge and understanding in an area of particular interest.



10.2 : Skills and other attributes


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-B5

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

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-B5)
• 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-B5)
• Time constrained examinations (B1-B2)
• Oral presentations (B3)
• 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-C6

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 a major project via written and oral presentations

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)

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)

Information provided by Department of Computer Science:

The Computing schemes at Aberystwyth have a significant emphasis on vocational skills.

In this scheme, students will also be expected to develop practical computer related skills giving them:

  • The ability to specify, design and construct computer-based systems.

  • The ability to evaluate systems in terms of general quality attributes and possible trade-offs presented within the given problem.

  • The ability to recognise any risks or safety aspects that may be involved in the operation of computing equipment within a given context.

  • The ability to deploy effectively the tools used for the construction and documentation of computer applications, with particular emphasis on understanding the whole process involved in the effective deployment of computers to solve practical problems.

  • The ability to operate computing equipment effectively, taking into account its logical and physical properties.



10.3 : Transferable/Key skills


Information provided by Department of Physics:

By the end of their programme, all students are expected to be able to demonstrate:

D1-D6

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

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)

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)

Information provided by Department of Computer Science:

On completion of the programme the student will be able to take responsibility for themselves and their work. They will be able to:

  • Work independently

  • Respect the views and beliefs of others

  • Listen

  • Communicate orally

  • Communicate in writing

  • Communicate electronically

  • Word-process

  • Use the Web

  • Manage time and work to deadlines

  • Research issues

  • Solve problems

  • Adapt to change

  • Develop career awareness

And they will exhibit:

  • Effective information-retrieval skills.

  • Numeracy in both understanding and presenting cases involving a quantitative dimension.

  • Effective use of general IT facilities.

  • Managing one's own learning and development including time management and organisational skills.

  • Appreciating the need for continuing professional development in recognition of the need for lifelong learning.



11 : Program Structures and requirements, levels, modules, credits and awards



BSC Space Science and Robotics [FH56]

Academic Year: 2024/2025Single Honours scheme - available from 2003/2004

Duration (studying Full-Time): 3 years

Part 1 Rules

Year 1 Core (40 Credits)

Compulsory module(s).

Semester 1
CS12020

Introduction to Programming

Semester 2
CS12320

Programming Using an Object-Oriented Language

Year 1 Core (70 Credits)

Compulsory module(s).

Semester 1
MP10610

Calculus

PH10020

Dynamics, Waves and Heat

PH16210

Algebra and Differential Equations

Semester 2
PH11120

Electricity, Magnetism and Matter

PH15510

Laboratory Techniques for Experimental Physics (10 Credits)

Year 1 Options

Choose 10 credits

Semester 1
PH18010

Astronomy

PH19510

Communication and Technology

Semester 2
PH19010

Energy and the Environment

Part 2 Rules

Year 2 Core (60 Credits)

Compulsory module(s).

Semester 1
CS23820

C and C++

Semester 2
CS24520

Scientific Python

CS26020

Robotics and Embedded Systems

Year 2 Core (60 Credits)

Compulsory module(s).

Semester 1
PH24520

Sensors, Electronics & Instrumentation

PH28620

Stars and Planets

Semester 2
PH25720

Practical Research Skills

Final Year Core (30 Credits)

Compulsory module(s).

Semester 2
PH38210

Professional Skills in Engineering

PH38820

Physics of Planetary Atmospheres

Final Year Core (50 Credits)

Compulsory module(s).

Semester 1
CS34110

Computer Vision

CS36010

Robotic Applications

CS36220

Machine Learning

CS36510

Space Robotics

Semester 2

Final Year Options

Choose either the Computer Science or the Physics Project

Semester 1
FG37500

Prosiect (40 Credyd)

PH37500

Project (40 Credits)

Semester 2
CC39440

Prosiect Hir

CS39440

Major Project

FG37540

Prosiect (40 Credyd)

PH37540

Project (40 Credits)


12 : Support for students and their learning
Every student is allocated a Personal Tutor. Personal Tutors have an important role within the overall framework for supporting students and their personal development at the University. The role is crucial in helping students to identify where they might find support, how and where to seek advice and how to approach support to maximise their student experience. Further support for students and their learning is provided by Information Services and Student Support and Careers Services.

13 : Entry Requirements
Details of entry requirements for the scheme can be found at http://courses.aber.ac.uk

14 : Methods for evaluating and improving the quality and standards of teaching and learning
All taught study schemes are subject to annual monitoring and periodic review, which provide the University with assurance that schemes are meeting their aims, and also identify areas of good practice and disseminate this information in order to enhance the provision.

15 : Regulation of Assessment
Academic Regulations are published as Appendix 2 of the Academic Quality Handbook: https://www.aber.ac.uk/en/aqro/handbook/app-2/.

15.1 : External Examiners
External Examiners fulfill an essential part of the University’s Quality Assurance. Annual reports by External Examiners are considered by Faculties and Academic Board at university level.

16 : Indicators of quality and standards
The Department Quality Audit questionnaire serves as a checklist about the current requirements of the University’s Academic Quality Handbook. The periodic Department Reviews provide an opportunity to evaluate the effectiveness of quality assurance processes and for the University to assure itself that management of quality and standards which are the responsibility of the University as a whole are being delivered successfully.