Click here to start your application. Apply now

Academic Handbook Programme Specifications

BSc (Hons) Philosophy & Computer Science

Award and programme title BSc (Hons) Philosophy & Computer Science UCAS code P1C5

 

Programme level Level 6 HECoS code 100337 Philosophy

100366 Computer Science

Relevant QAA benchmark statements Philosophy; Computing Programme code LBAPHCS-F
Relevant professional body requirements NA Language of instruction English
Awarding body Northeastern University – London Date approved November 2022
Mode of study Full-time Duration of study 3 years

Aims

This programme aims to combine rigorous study of Philosophy and Computer Science, and explorations at their intersections, with personalised elective opportunities that complement (deepens, broadens, contextualises) those studies in line with the student’s values, interests, or goals.

Philosophy is concerned with fundamental questions about, among other topics, the nature of reality, what we can know, how we should act, the basis of politics, the principles of aesthetic evaluation, methodological questions concerning the sciences, and the principles of inference. The study of Philosophy cultivates an approach to such topics driven by rigorous argument.

Computer science cultivates the knowledge, techniques, and tools to develop effective and secure computer software according to appropriate legal, ethical, and professional frameworks. Students study the fundamentals of programme design including object-oriented design, software development, computer organisation, systems and networks, theory of computation, principles of languages, and advanced algorithms and data.

Students on this programme take one or more courses at the intersections of Philosophy and Computer science, and their studies culminate with a (typically, integrative) Final Project.

The programme is designed with the aim that in pursuing their studies each student also gains core competencies (e.g. writing across audiences and genres; employing ethical reasoning; analysing and using data; integrating knowledge and skills through experience) that empower them for sustained impact, success, and self-actualisation.

Structure and Requirements

The degree regulations require that students take courses to the value of 360 credits across three years, with at most 120 credits at L4, and at least 90 credits at L6.

At least 90 credits of courses should be flagged with discipline(s) outside of the main degree discipline (note: interdisciplinary courses flagged with the main discipline and other discipline(s) can count towards this).

Options and Electives

By definition: an ‘option’ is a course that a student on the programme is not required to take but that they may take in order to fulfil a discipline-specific requirement; whereas ‘electives’ are any other (non-required) courses that the student may take to fulfil the wider, overall, programme requirements.

Choosing Options or Electives

Students will be asked to select options and/or electives in advance of each new academic year, and in this process will receive dedicated support and guidance from Academic Advisors, who will also connect them with faculty as appropriate.

*University Courses List Condition

The optional/elective courses that run in each academic year are subject to change in line with faculty availability and student demand, and may be capped or be unavailable in timetable, so there is no guarantee every optional / elective course will be available every year. Where a course is set to run, students for whom it is an option will typically be given priority over students for whom it is only an elective.

For the most up-to-date list of courses, please visit the University Courses webpage.

First Year 

Required course list (Computer Science):

  • LCSCI4212 Discrete Structures (L4, 15 credits)
  • LCSCI4207 Fundamentals of Computer Science I (L4, 15 credits)
  • LCSCI4208 Fundamentals of Computer Science II (L4, 15 credits)

Required course list (Philosophy):

  • LPHIL4239 Introduction to Philosophy (L4, 15 credits)
  • LPHIL4228 Introduction to Logic (L4, 15 credits)
  • LPHIL4230 Technology and Human Values (L4, 15 credits)

In addition, take available L4 courses from the University Courses list* to add up to 120 credits, selected with anAcademic Advisor so as to support progress towards meeting all (including core) programme requirements by the end of the third year.

Second Year

Required course list (Computer Science):

  • LCSCI5205 Object-Oriented Design (L5, 15 credits)
  • LCSCI5204 Algorithms and Data (L5, 15 credits)
  • LCSCI5208 Database Design (L5, 15 credits)

Required course list (Philosophy):

  • LPHIL5228 Ancient Philosophy (L5, 15 credits)
  • In order to meet the relevant discipline learning outcomes, take at least TWO other L5 Philosophy courses from the University Courses list*, at least ONE of which is in theoretical philosophy.

Required course (integrative):

  • LPHIL5248 AI and Data Ethics (L5, 15 credits)

Note: this course can be counted towards the above L5 Philosophy discipline requirement

In addition, take any available L5 course/s from the University Courses list* to add up to 120 credits, selected with an Academic Advisor so as to support progress towards meeting all (including Core) programme requirements by the end of the third year.

This programme is designed to enable eligible students the option to progress through their degree by studying abroad, at another global location, in the second semester of their second year. Advice and support on specific opportunities will be provided by the Academic Advisors.

Third Year 

Required course list (Computer Science):

  • LCSCI6206 Fundamentals of Software Engineering (L6, 15 credits)

TWO additional courses from this list*:

  • LDSCI6253 Advanced Information Presentation and Visualisation (L6, 15 credits)
  • LDSCI6209 Large-Scale Information Storage and Retrieval (L6, 15 credits)
  • LDSCI6210 Machine Learning and Data Mining I (L6, 15 credits)
  • LDSCI6211 Machine Learning and Data Mining II (L6, 15 credits)
  • LCSCI6207 Human Computer Interaction (L6, 15 credits)

Required course list (Philosophy):

  • LPHIL6239 Philosophy of Logic and Language (L6, 15 credits)
  • In order to meet the relevant discipline learning outcomes, take TWO additional Philosophy courses (typically all at L6) from the University Courses list*.

Required course (typically integrative):

  • LPHIL6237/LDSCI6208 Final Project (Philosophy / Computer Science) (L6, 30 credits)

Core Requirements

By completion of their degree, each student is required to have passed courses with the following attributes. (Please note: codes indicated on the course descriptors and in the University Courses list.)

All of the following:

  • Writing across Audiences and Genres
    • Writing Intensive (WI) x 2
    • Communicating in Public and Professional Contexts (CPPC)
  • Integrating Knowledge and Skills through Experience (EX)
  • Demonstrating Thought and Action in a Final Project (FP)

At least FOUR of the following EIGHT:

  • Engaging with the Natural and Designed World (ND)
  • Exploring Creative Expression and Innovation (EI)
  • Interpreting Culture (IC)
  • Conducting Formal and Quantitative Reasoning (FQ)
  • Understanding Societies and Institutions (SI)
  • Analysing and Using Data (AD)
  • Engaging Differences and Diversity (DD)
  • Employing Ethical Reasoning (ER)

Elective Pathways

Students who take the equivalent of at least THREE courses across at least TWO levels in a defined discipline or thematic pathway outside of their main degree discipline requirements, may apply to receive recognition for this (e.g.BSc (Hons) Philosophy & Computer Science with Sustainability) in a letter alongside their degree certificate and transcript.

Entrance Requirements

Age

The University requires applicants to be at least 18 years old on 1 September in the year of entry.

General Entrance Requirements

The University’s typical offer for undergraduate study is AAB at A Level, 35 points or 6,6,5 in Higher Level (HL) subjects in the International Baccalaureate (IB) Diploma, or the equivalent. A Level General Studies, Critical Thinking, Thinking Skills and Global Perspectives are not accepted by the University. Students studying the Extended Project Qualification (EPQ) alongside three A Levels may be eligible for an alternative offer. For the IB, the overall score of 35 points includes Theory of Knowledge and the Extended Essay, and students achieving the University’s alternative offer of 6,6,5 in HL subjects must also achieve an overall pass in the IB Diploma for entry to our programmes.

If English is not an applicant’s native language, they will need to demonstrate proficiency in English in order to study at the University. A minimum IELTS score of 6.5 overall with 6.0 in each sub-test, or equivalent is required. For a list of equivalencies, please check here.

Specific Entrance Requirements

Students without Maths A level or equivalent may be advised to take a Level 4 Maths course

Recognition of Prior Learning

Where a student wishes to apply for the recognition of prior learning on the basis of certificated or experiential learning, they should follow the University’s Recognition of Prior Learning Policy

Learning Outcomes

By completion of the programme:

Knowledge and Understanding

A student will be able to: 

K1c Demonstrate a sound understanding of the main body of knowledge for computing and exercise critical judgement in the use of that knowledge – including state-of-the-art technology, methods and thinking.
K2c Describe and critically examine diverse texts, figures, and theories across the history of philosophy.
K3c Articulate and critically explore a range of ideas or debates at the intersections of computer science and philosophy.

Subject Specific Skills

A student will be able to: 

S1c Develop computer systems using appropriate methods, techniques and tools to ensure correctness, security, reliability, performance, and maintainability, as well as to address core professional, legal and ethical concerns.
S2c Clarify, situate, synthesise, interrogate, and develop diverse ideas and arguments across theoretical and practical branches of philosophy.
S3c Apply advanced concepts and methods from computer science and from philosophy, and engage effectively at the intersections of the two disciplines.

Transferable and Employment Skills

A student will be able to:

T1c Communicate persuasively across audiences and genres, conveying academic materials to both specialist and non-specialist audiences using a range of formats and techniques.
T2c Research and study creatively, independently, and reflectively, applying advanced knowledge and skills to unfamiliar or wider world challenges or contexts.
T3c Display an advanced level of technical proficiency in written English and competence in applying scholarly terminology, so as to be able to apply skills in critical evaluation, analysis and judgement effectively in a diverse range of contexts.

 

All of the above learning outcomes are mapped to the relevant QAA Subject Benchmark threshold statements, see Appendix A.

For a mapping of courses to learning outcomes, see Appendix B.

For the Exit Awards, see Appendix D.

Teaching and Learning

Overview

The University aims to provide a lively, open, active, and authentic teaching and learning environment, in which students have the opportunity to connect their studies with wider interests and applications, and in which research and teaching are complementary.

An inclusive and interactive approach enables focus on the individual student, prompts and encourages independent reading and research, and hones their ability to apply their knowledge and skills in new contexts. This provides students with opportunities to  develop and demonstrate their discipline expertise in a variety of contexts, enabling them to enhance their subject specific and transferable skills. Teaching is flexible and adaptive to respond to student needs and classroom dynamics.

Approaches to increase inclusivity and experiential learning in the classroom might include:

  • Flipped classroom – study materials and formal lecture content is delivered to students outside of the contact hours. This enables the classroom time to focus on a discussion of key concepts and themes, for students to ask targeted questions to enhance their understanding, and for interactive group activities to share and widen knowledge and understanding. This might include small groups giving mini-presentations, or proposing a solution to a problem.
  • Role play / simulations – students are given scenarios / briefs in advance of the session, and possibly a specific role to play in the activity. The tutor guides the process by establishing context, releasing new material to students in the course of the activity, and providing space for reflection on the outcomes of the activity, and on the theories and concepts discussed and tested during the activity.
  • Tutor – Student co-creation: this is similar to the flipped classroom model, but relies on a stronger degree of student input at the design stage of the learning activity. The course leader still has control of overall content and direction of the course. However, weekly focus and case studies to apply and evaluate theories and concepts can be agreed collectively.

The portfolio of teaching, learning, and assessment elements each year is designed to embrace the University’s Teaching and Learning and Assessment Strategies and provide a diverse range of teaching and assessment methods, tasks, and tools.

Since the programme supports each student (in conversation with an Academic Advisor) to take a personal elective pathway through their studies, the range of teaching and learning activities and assessment types will vary student by student. A student who wants to go into postgraduate study in their main degree discipline, for example, may elect to take more Directed Study (1:1, 2:1, or small group) courses in their main discipline than a student with other interests or goals.

The teaching and learning for the programme is designed to progress steadily over three years and develop students’ conceptual sophistication and powers of application, through cumulative knowledge and experience.

The third-year culminating Final Project enables the student to refine their independent research and communication skills and to synthesise and develop their studies with a supervisor. 

Teaching and Learning Activities

The teaching and learning activities include:

  • Lectures / seminars / labs / studios / workshops
  • Directed study (1:1, 2:1, or small group teaching on specific topics)
  • Informal discussion (including on online discussion boards and in regular faculty ‘office hours’, which are opportunities for students to drop in or sign up to explore ideas, raise questions, or seek targeted guidance or feedback, individually or in small groups)
  • Formative and summative assessment tasks
  • Independent study and research

Assessment

A dedicated Assessment Strategy supports authentic, inclusive, and experiential assessment. This includes offering students a broad range of assessment types, which support active learning. The assessment types available to students are listed in the University Assessment Strategy. Whilst it is not expected that all programmes should offer all of these different assessment types, and choice of assessment should be based on the most effective and appropriate way to test student learning, there will be a range available which empowers students to demonstrate their discipline knowledge via diverse means.

Courses at the University are assessed formatively and summatively in a variety of ways, including:

  • Written Assignment (e.g., long-form coursework essay; study report; literature review; reflective essay; dissertation)
  • Examination (e.g., open book scheduled exam; closed book; 24-/48-hour exam)
  • Presentation (e.g., oral presentation with accompanying slides; Viva voce)
  • Role Play (e.g., Moot; consultancy simulation; “code walks”)
  • Practical ( e.g., lab skills assessments)
  • Artefact (e.g., software artefact with an accompanying report)
  • Portfolio (i.e., students only have one final, formal deadline, but what they submit includes a series of shorter pieces created and reflected upon and revised across the course)
  • Set Exercises (e.g., a series of short set exercises distributed across the course)

Feedback on formative and summative assessment tasks is provided in verbal or written forms.

Note about set exercises. In computer and data science courses, we advocate continuous summative assessments. Set exercises consist of a series of short exercise sheets, distributed across the duration of the course. The way they are distributed depends on the course, and is set by the course leader by the start of the course (for example, weekly, or bi-weekly). Each exercise sheet has a firm summative deadline. Students must submit their solutions for a given exercise sheet by a given deadline. The overall grade of the set exercises is the aggregate mark of its constituent exercise sheets. If students submit late, without approved extenuating circumstances, penalties apply.

Appendix C contains the programme structure and assessment summary.

The University’s Assessment Strategy can be found here.

The University’s Assessment Regulations for Taught Awards can be found here.

Teaching and Learning Environment

The teaching and learning environment includes:

  • The University’s campus has state-of-the-art teaching rooms and independent and group study spaces.
  • A Virtual Learning Environment (VLE) for each course with a syllabus and range of additional resources (e.g. readings, question prompts, tasks, assessment briefs, slides or handouts, discussion boards, and sample examination papers and examiners’ reports) to orientate and engage students in their studies.
  • Northeastern University’s online library digital resources, and other online academic resources, such as JSTOR and the OED. Students are inducted on their use at the start of the programme, and wider digital literacy is reinforced and developed across their studies.
  • Students can also apply for a reader’s card to use the British Library membership and apply for membership of any of the City of London libraries. Students at the University can apply for Senate House Library membership. 
  • As part of the wider teaching and learning environment, the University hosts a range of academic and social events in which students, faculty, alumni and interlocutors from outside the academy are brought together.

Research

The University is an active research and knowledge exchange community. Its programmes are designed by faculty with relevant research expertise and teaching is allocated to faculty as far as possible to align with their research expertise and interests.

All students have the opportunity to develop their research skills as they progress through the programme, culminating with the written assignment in their final year, when their supervisor will be on hand to provide bespoke support.

Students are invited to a range of faculty research events and, where possible and from time to time, research assistance opportunities are made available.

Student Support and Development

Disabilities and/or Specific Learning Difficulties (SpLDs)

Students are strongly encouraged to inform the University of any medical conditions, disabilities, specific learning difficulties (SpLD) or neurological differences as soon as is practical. Students will be asked to submit supporting documentation from a doctor, clinical or educational psychologist detailing the nature of their disability and the impact it is likely to have on their studies in order to help us put in place appropriate support and accommodations. More information can be found in the Student Disability Policy. This data is managed and securely stored by Student Support and Development (SSD). At the start of the academic year, a number of talks and events are held which are designed to support and inform students with regard to mental health, disabilities, safety and learning support.

SSD meet with students as soon as possible, and preferably before the start of the academic year, to discuss their needs and draft a Learning Support Plan (LSP) which outlines the support to be provided both within the University (if appropriate) and externally. If requested by the student, the SDD will then arrange to inform relevant faculty of the student’s needs and any reasonable adjustments required. 

If a student is undiagnosed but believes they may have a SpLDS (e.g. Dyslexia) the SDD will help them to access diagnostic services. If the assessment confirms a SpLDS, the SDD will work the student in preparing a LSP and will provide advice about accessing additional funding and support through the Disabled Students Allowance, where a student may be eligible

For more information, please click here.

Employability and Careers Guidance

The core competencies embedded within this credit-bearing degree programme are designed to prepare students for public citizenship, professional success, and personal flourishing.

The University’s employability and careers opportunities have been designed in collaboration with a large number of experts from inside and outside academia, to develop the attitudes, behaviours and capabilities that will prepare students for the world of work. 

University Careers Advisors help students to identify their career goals and create individual career plans. Students are actively encouraged to seek internships, with guidance given throughout the application process.

Quality Assurance and Enhancement

Award Standards

Every programme of study is developed by the faculty, utilising their subject specialists and approved by the University’s Academic Board.

Review and Evaluation Mechanisms

The University has robust procedures, as described in AQF4 Programme and Course Approval and Modifications and AQF5 Annual Monitoring and Reporting, in place to assure the quality of the programme development, delivery, and management, alongside systematic monitoring, ongoing review and enhancement of all University programmes. Enhancements are made as necessary to ensure that systems remain effective and rigorous.

The University utilises constructive feedback from a variety of sources, internal and external, to inform its decision-making process to enhance the programme and the student experience. These feedback sources are:

  • Annual Course Reviews, written by the Course Leader, are prepared to enable the Course Leader to reflect on the course, using a variety of data and student/faculty feedback to enhance the course and support the writing of the Annual Programme Review.
  • Annual Programme Reviews, written at the end of each academic year, are prepared in order to enhance individual programmes and to plan ahead.
  • Annual External Examiner Reports are prepared by the External Examiners, as appointed by the University, to confirm that a programme has been assessed in accordance with the approved documentation and that the student performance meets the appropriate academic standards.
  • Formal student feedback mechanisms consist of course questionnaires and Student-Staff Liaison Committee meetings at least once each semester, as well as annual student satisfaction surveys, including external independent survey, such the National Student Survey.
  • Informal student feedback is also valued by the University and this can take the form of students talking or corresponding with faculty or professional staff.  

About this document

Title: BSc (Hons) Philosophy & Computer Science Programme Specification

Approved by: Academic Board

Location: Academic Handbook/Programme Specifications/Undergraduate

Version number Date approved Date published Owner Proposed next review date Modification (As per AQF4 & category number)
2.0 August 2023 August 2023 Dr. Alexandros Koliousis August 2027 Category 2: Change to summative assessment
1.0 August 2022 December2022 Dr. Alexandros Koliousis August 2027  
 
Referenced documents Recognition of Prior Learning Policy; Assessment Strategy; Assessment Regulations for Taught Awards; AQF4 Programme and Course Approval and Modifications; AQF5 Annual Monitoring and Reporting
External Reference Point(s) Subject Benchmark Philosophy; Computer Science

Disclaimer

The University has checked the information provided in this Programme Specification and will aim to deliver this programme in keeping with this Programme Specification. However, changes to the programme may sometimes be required arising from annual monitoring, student feedback, and the review and update of courses and programmes. Where this activity leads to significant changes to courses and programmes there will be prior consultation with students and others, wherever possible, and the University will take all reasonable steps to minimise disruption to students. It is also possible that the University may not be able to offer a course or programme for reasons outside of its control, for example, due to the absence of a member of staff or low student registration numbers. Where this is the case, the University will aim to inform applicants and students as soon as possible, and where appropriate, will facilitate the transfer of affected students to another suitable programme.

Copyright

The contents of this Programme Specification are the copyright of the University and all rights are reserved. No part of this publication may be reproduced, stored in a retrieval system or transmitted, in any form or by any means, such as electronic, mechanical, photocopied, recorded or otherwise, without the prior consent of the University.

Appendix A: Map  Learning Outcomes to QAA subject benchmark statement:  Philosophy and Computer Science

Category Subject area Benchmark Threshold Statement **
Subject knowledge, understanding and skills Computer Science Demonstrate a requisite understanding of the main body of knowledge for their subject
Philosophy Familiarity with the writings of some of the major philosophers and some central theories and arguments in the fields of logic, metaphysics, epistemology or philosophy of mind.
Intellectual skills Computer Science Understand and apply essential concepts, principles and practices of the subject in the context of well-defined scenarios, showing judgement in the selection and application of tools and techniques
Philosophy Familiarity with some central theories and arguments in the fields of moral, political or social philosophy, broadly understood. Awareness of the nature of sound arguments and logical fallacies. Views on the success of standard arguments.
Problem-solving Computer Science Be able to demonstrate judgement, critical thinking and problem-solving skills to solve well-specified problems, to create computational artefacts with a degree of independence
Philosophy An ability to identify underlying issues in various debates.

Grasp of some philosophical problems, mentioning arguments for or

against proposed solutions

Practical Skills Computer Science Demonstrate the ability to undertake problem identification and analysis to appropriately design, develop, test, integrate or deploy a computing system and any associated artefacts; understand the relationship between stages
Philosophy Some appreciation of the wide range of techniques of philosophical reasoning. Familiarity with the use of specialised philosophical terminology. Understanding of the importance of careful interpretation of a variety of texts.
Interpersonal and team working skills Computer Science Demonstrate the ability to work in an effective manner, including as a member of a team, making use of tools and techniques to appropriately communicate, manage tasks and plan projects under guidance
Philosophy
Professional practice Computer Science Identify appropriate practices and perform work within a professional, legal and ethical framework – including data management and use, security, equality, diversity and inclusion (EDI) and sustainability – in the work that they undertake.
Philosophy Appreciation of how generalisations can be supported or weakened by

detailed discussion. Recognition of arguments on both sides of a philosophical question

** This is intended to mean that all students (taken over all years) graduating with an honours degree in this discipline will have achieved this.

Appendix B – Map of Courses to Learning Outcomes

Joint Learning Outcomes

Joint Learning Outcomes
Code Course Title K1 K2. K3 S1 S2 S3 T1 T2 T3
FHEQ Level 4
LCSCI4212 Discrete Structures K1a, K2a   K3a S1a   S3a   T1a T4a
LCSCI4207 Fundamentals of Computer Science I K1a, K2a   K3a S1a, S2a   S3a   T1a T4a
LCSCI4208 Fundamentals of Computer Science II K1a   K3a S1a,S2a     T1a   T4a
LPHIL4239 Introduction to Philosophy   K1a. K2a     S1a       T3a
LPHIL4230 Technology and Human Values         S2a   T1a   T3a
LPHIL4228 Introduction to Logic   K1a K3a   S2a S3a T1a T2a  
FHEQ Level 5
LCSCI5205 Object-oriented design K1b   K3b S1b, S2b       T3b T4b
LCSCI5208 Database Design K1b, K2B   K3b S1b, S2b     T2b T 3b T4b
LCSCI5204 Algorithms & Data K1b, K2b,   K3b S1b, S2b   S3b T1b   T4b
LPHIL5228 Ancient Philosophy   K1b, K2b     S1b, S2b   T1b   T3b
LPHIL5248 Ai and Data Ethics   K1b, K2b     S1b,S2b     T2b T3b
FHEQ Level 6
LDSCI6253 Advanced Information Presentation & Visualisation ( )) K1c, K2c   K3c S1c, S2c   S3c T1c   T4c
LCSCI6206 Fundamentals of Software Engineering K1c, K2c,   K3c S1c, S2c     T1c T3c T4c
LDSCI6209 Large-scale Information Storage and Retrieval (0)

 

K1c, K2c   K3c S1c, S2c       T2c, T3c T4c
LDSCI6210 Machine learning and Data Mining I (O) K1c, K2c     S1c   S3c T1c   T4c
LDSCI6211 Machine Learning and Data Mining II (O) K1c, K2c   K3c S1c, S2c       T3c T4c
LCSCI6207 Human Computer Interaction(o) K1c, K2c   K3c S1c,S2c   S3c T1c   T4c
LPHIL6239 Philosophy of Logic and Language   K1c, K2c     S1c,S2c     T2c T3c
LPHIL6237/LDSCI6208 Final Project K1c,K2c, K1c, K2c K3c S1c, S2c S1c, S2c S3c T1c T2c T3c, T4c

NB: Electives are typically mapped to the programme learning outcomes through the Transferable Skills.

Appendix C – Required Course Summative Assessment Summary

Code Course Title Credit Type Assessment Weighting % & Activity Type
AE1 Activity
type
 
AE2 Activity
type
AE3 Activity
type
FHEQ Level 4
LCSCI4212 Discrete Structures 15 R 50 Set 30 Exam 20 RP
LCSCI4207 Fundamentals of Computer Science I 15 R 30% Set 40% Project 30% Project
LCSCI4208 Fundamentals of Computer Science II 15 R 30% Set 40% Project 30% Project
LPHIL4239 Introduction to Philosophy 15 R 70 WA 30 Pres
LPHIL4228 Introduction to Logic 15 R 30 Set 70 Exam
LPHIL4230 Technology and Human Values 15 R 30 pres 70 WA
FHEQ Level 5
LCSCI5205 Object-Oriented Design 15 R 70% Set 30% Group Project
LCSCI5204 Algorithms and Data 15 R 50% Set 25% Exam 25% Exam
LCSCI5208 Database Design 15 R 70% Set 30% Group Project
LPHIL5248 AI and Data Ethics 15 R  40  Pres  60  WA
LPHIL5228 Ancient Philosophy 15 R 30 WA 70 WA
Elective in theoretical Philosophy 15 O TBC
Philosophy course 15 O TBC
FHEQ Level 6
LCSCI6206 Fundamentals of Software Engineering 15 R 70% Set 30% WA Group Project
LCSCI6207 Human Computer Interaction 15 O 40 Set 40 WA 20 Pres
LDSCI6253 Advanced Information Presentation and Visualisation 15 O 60 Set 40 WA
LDSCI6210 Machine Learning and Data Mining I 15 O 40% Set 30% Exam 30% WA
LDSCI6209 Large-Scale Information Storage and Retrieval 15 O 40% Set 30% WA 30 WA group
LDSCI6211 Machine Learning and Data Mining II 15 O 40% Set 30% Exam 30% WA
LPHIL6239 Philosophy of Logic and Language 15 R 20 WA 80 WA
Philosophy course 15 R tbc
Philosophy course 15 R tbc
LPHIL6237/LDSCI6208 Final Project 30 R 75 WA 25 Pres

Course Type:  

R = Required or O = Optional

Assessment Weighting:

AE1 = Assessment Element 1; AE2 = Assessment Element 2; AE3 = Assessment Element 3

ASSESSMENT ACTIVITY TYPE CODE
Written assignment WA
Examination Exam
Presentation Pres
Role play RP
Portfolio P
Set exercise Set
Practical Pract

Appendix D – Exit Awards

Certificate in Higher Education:

In order for a student to be awarded a Certificate in Higher Education (Cert HE), they are required to have achieved 120 Level 4 Credits, in accordance with the University’s Academic Regulations for Taught Awards.

Knowledge and Understanding

A student will be able to: 

K1a Demonstrate a sound understanding of the main body of knowledge for computing and exercise critical judgement in the use of that knowledge – including state-of-the-art technology, methods and thinking.
K2a Describe and critically examine diverse texts, figures, and theories across the history of philosophy.
K3a Articulate and critically explore a range of ideas or debates at the intersections of computer science and philosophy.

Subject Specific Skills

A student will be able to: 

S1a Develop computer systems using appropriate methods, techniques and tools to ensure correctness, security, reliability, performance, and maintainability, as well as to address core professional, legal and ethical concerns.
S2a Clarify, situate, synthesise, interrogate, and develop diverse ideas and arguments across theoretical and practical branches of philosophy.
S3a Apply advanced concepts and methods from computer science and from philosophy, and engage effectively at the intersections of the two disciplines.

Transferable and Employability Skills

A student will be able to: 

T1a Communicate clearly and appropriately to specific audiences ..
T2a Study independently and effectively in a guided and structured environment..
T3a Display a developing technical proficiency in written English and an ability to communicate clearly and accurately in structured and coherent pieces of writing.

 

Diploma in Higher Education:

In order for a student to be awarded a Diploma in Higher Education (Dip HE), they are required to have achieved 120 Level 4 Credits and 120 Level 5 Credits, in accordance with the University’s Academic Regulations for Taught Awards.

Knowledge and Understanding

A student will be able to:

K1b Demonstrate a sound understanding of the main body of knowledge for computing and exercise critical judgement in the use of that knowledge – including state-of-the-art technology, methods and thinking.
K2b Describe and critically examine diverse texts, figures, and theories across the history of philosophy.
K3b Articulate and critically explore a range of ideas or debates at the intersections of computer science and philosophy.

Subject Specific Skills

A student will be able to: 

S1b Develop computer systems using appropriate methods, techniques and tools to ensure correctness, security, reliability, performance, and maintainability, as well as to address core professional, legal and ethical concerns.
S2b Clarify, situate, synthesise, interrogate, and develop diverse ideas and arguments across theoretical and practical branches of philosophy.
S3b Apply advanced concepts and methods from computer science and from philosophy, and engage effectively at the intersections of the two disciplines.

Transferable and Employability Skills

A student will be able to: 

T1b Communicate clearly and persuasively to specific audiences, using a range of formats and techniques
T2b  Research and study independently and effectively, applying knowledge and skills to unfamiliar or wider-world challenges or contexts.
T3b Demonstrate a sound technical proficiency in written English and skill in selecting vocabulary so as to communicate effectively to specialist and non-specialist audiences.

 

Print/Save PDF