Bachelor of Computing in Computational Biology
Overview
The main objective of this programme is to provide a multidisciplinary education, to produce graduates who would be equally at ease with algorithm design and mathematical and statistical analysis as they would be with biochemistry, biology/genetics, and wet-lab know-how. Besides an opportunity to pursue a career in IT, graduates from the programme will also be equipped for a career in the fast-paced pharmaceutical, biomedical or biotechnology industries. This will help meet the demand of the local market for talents with such skill sets. Moreover, the breadth of instructions will pave the way for good students to pursue graduate studies in Bioinformatics.
Programme Structure
The programme is structured such that both Computing and Faculty of Science students share a common core multidisciplinary curriculum (lower division) in their first two years of study.
The lower division embraces a fundamental body of knowledge in which a computational biologist should be proficient. This body of knowledge consists of the following:
• Discrete mathematics and combinatorics, i.e., logic, sets, graphs, counting techniques, etc.;
• Probability and statistics, i.e., sample spaces, random variables, conditioning, distributions, design of experiments, significance tests, statistical inference, etc.;
• Algorithm design and proficiency in some current programming language, i.e., combinatorial algorithms, algorithmic paradigms, analysis and design, working knowledge of current languages (for example, C, C++, Java) and experience in writing actual nontrivial code;
• Organic chemistry and biochemistry;
• Biology and genetics, including a moderate amount of wet-lab experience.
The upper division specialised track trains students in algorithmic design to facilitate the design of computationally efficient software and tools in both centralised and networking environments. Students in this track will pick up skills in software engineering, networking and advanced techniques in algorithmic design. Students may also take modules from the Computational Biology elective list.
Degree Requirements
The Computational Biology programme degree requires at least 160 MCs. Modules are classified as follows (note that every module can only be counted towards satisfying exactly one requirement):
(i) PROGRAMME REQUIREMENTS (Total of 120/121 MCs)
a. Common Essentials
CS1010 Programming Methodology17
CS1020 Data Structures and Algorithms I18
CS2010 Data Structures and Algorithms II18
CS2100 Computer Organisation
CS2102 Database Systems
CS2103T Software Engineering19
CS2105 Introduction to Computer Networks
b. Major Requirements
Level-1000
CS1231 Discrete Structures
LSM1101 Biochemistry and Biomolecules
LSM1102 Molecular Genetics
MA1101R Linear Algebra I
MA1102R Calculus
Level-2000
CS2220 Introduction to Computational Biology
CS2101 Effective Communication for Computing Professionals
Either
LSM2101 Metabolism and Regulation
or
LSM2102 Molecular Biology
or
LSM2103 Cell Biology
Either
LSM2201A Experimental Biochemistry
or
LSM2202A Experimental Molecular and Cell Biology
ST2334 Probability and Statistics20
Level-3000
CS3230 Design & Analysis of Algorithms
LSM3231 Protein Structure and Function
Either
CS3225 Combinatorial Methods in Bioinformatics
or
MA3259 Mathematical Methods in Genomics
Minimum of 8 MCs from the following list21:
CS3103 Computer Networks and Protocols22
Either:
CS3225 Combinatorial Methods in Bioinformatics
or
MA3259 Mathematical Methods in Genomics
CS3240 Human-Computer Interaction
CS3241 Computer Graphics
CS3243 Introduction to Artificial Intelligence
CS3244 Machine Learning
Level-4000
CS4220 Knowledge Discovery Methods in Bioinformatics
LSM4241 Functional Genomics
Either:
CP4101 B. Comp. Dissertation23
Complete 8 MCs by taking modules from CB Elective Course List
or
Complete 20 MCs by taking modules from CB Elective Course List
Computational Biology (CB) Elective Course List 24
CS4221 Database Design
CS4231 Parallel and Distributed Algorithms
CS4235 Computational Geometry
CS4237 Systems Modelling and Simulation
CS4243 Computer Vision and Pattern Recognition
CS4244 Knowledge-Based Systems
CS4248 Natural Language Processing
CS5228 Knowledge Discovery and Data Mining
CS5234 Combinatorial & Graph Algorithms
CS5238 Advanced Combinatorial Methods in Bioinformatics
CS5340 Uncertainty Modelling in Artificial Intelligence
(ii) UNIVERSITY LEVEL REQUIREMENTS
As specified in Section 3.2.1.
(iii) UNRESTRICTED ELECTIVES
As specified in Section 3.2.1. Students are required to read CM1121 Basic Organic Chemistry, and PC1432 Physics IIE towards partially satisfying Unrestricted Electives. Students are encouraged to take up CP3880 Advanced Technology Attachment Programme (ATAP), and they should seek approval from the Computational Biology coordinator and ATAP coordinator.
Table 2: Summary of degree requirements for B.Comp. (Computational Biology)
Modules |
MCs |
Subtotals |
UNIVERSITY LEVEL REQUIREMENTS |
|
20 |
PROGRAMME REQUIREMENTS |
|
120 |
Common Essentials |
CS1010 Programming Methodology25 |
4 |
20
20
.
. |
CS1020 Data Structures and Algorithms I26 |
4 |
CS2010 Data Structures and Algorithms II26 |
4 |
CS2100 Computer Organisation |
4 |
CS2102 Database Systems |
4 |
CS2103T Software Engineering |
4 |
CS2105 Introduction to Computer Networks |
4 |
Major Requirements |
Level-1000 CS and LS major requirements |
|
CS1231 Discrete Structures |
4 |
|
LSM1101 Biochemistry and Biomolecules |
4 |
|
LSM1102 Molecular Genetics |
4 |
|
MA1101R Linear Algebra I |
4 |
|
MA1102R Calculus |
4 |
|
Level-2000 CS and LS major requirements |
|
CS2220 Introduction to Computational Biology |
4 |
CS2101 Effective Communication for Computing Professionals |
4 |
LSM2101 Metabolism and Regulation or
LSM2102 Molecular Biology or
LSM2103 Cell Biology |
4 |
LSM2201A Experimental Biochemistry or
LSM2202A Experimental Molecular and Cell Biology |
4 |
ST2334 Probability and Statistics27 |
4 |
Level-3000 CS and LS major requirements |
|
CS3230 Design & Analysis of Algorithms |
4 |
CS3225 Combinatorial Methods in Bioinformatics or
MA3259 Mathematical Methods in Genomics |
4 |
LSM3231 Protein Structure and Function |
4 |
Level-3000 Electives28 ; Choose any three from the following:
CS3103 Computer Networks and Protocols 29 |
12 |
|
CS3225 Combinatorial Methods in Bioinformatics
or
MA3259 Mathematical Methods in Genomics |
|
CS3240 Human-Computer Interaction |
. |
CS3241 Computer Graphics |
. |
CS3243 Introduction to Artificial Intelligence |
. |
CS3244 Machine Learning |
. |
Level-4000 CS and LS major requirements |
. |
CS4220 Knowledge Discovery Methods in Bioinformatics |
4 |
. |
LSM4241 Functional Genomics |
4 |
Either
CP4101 B. Comp. Dissertation30
Sufficient number of modules from CB Elective Course List31
or
Sufficient number of modules from CB Elective Course List |
20 |
UNRESTRICTED ELECTIVES32 |
|
20 |
Grand Total |
|
160 |
Concurrent Programme with Brown University on Computational Biology
This is a fast-track programme that allows deserving students to obtain the Bachelor of Computing (Computational Biology) from NUS and a Scientiae Magister in Computational Biology in Computer Science from Brown University within five years.
17 CS1010 (4 MCs) can be replaced by CS1101S Programming Methodology (5 MCs).
18 CS1020 and CS2010 can be replaced by CS2020 Data Structures and Algorithms Accelerated. The remaining 2 MCs will be added to the Unrestricted Electives Requirements.
19 Students taking CS2103T Software Engineering must take CS2101 Effective Communication for Computing Professionals in the
same semester.
20 Students should choose ST2131 (Probability) and ST2132 (Mathematical Statistics) in place of ST2334 (Probability and Statistics) if they plan to pursue higher level statistics modules.
21 With the special permission from the UROP coordinator and Computational Biology Programme Coordinator, CP3208/CP3209 Undergraduate Research in Computing I/II can be used to replace two of the Level-3000 Computational Biology electives if the project is on Computational Biology.
22 Students who take CS3103 (Computer Networks and Protocols) must also take CS3103L (Computer Networks Laboratory).
23 The theme of the project must be on Computational Biology.
24 The Computational Biology (CB) Elective Course List may be revised from time to time to include new Computational Biology electives that are introduced and approved by the Department of Computer Science.
25 CS1010 (4 MCs) can be replaced by CS1101S Programming Methodology (5 MCs).
26 CS1020 and CS2010 can be replaced by CS2020 Data Structures and Algorithms Accelerated. The remaining 2 MCs will be added to the Unrestricted Electives Requirements.
27 Students should choose ST2131 (Probability) and ST2132 (Mathematical Statistics) in place of ST2334 (Probability and Statistics) if they plan to pursue higher level statistics modules.
28 With the special permission from the UROP coordinator and Computational Biology Programme Coordinator, CP3208/CP3209 Undergraduate Research in Computing I/II can be used to replace two of the Level-3000 Computational Biology electives if the project is on Computational Biology.
29 Students who take CS3103 (Computer Networks and Protocols) must also take CS3103L (Computer Networks Laboratory).
30 The theme of the project must be on Computational Biology.
31 The Computational Biology (CB) Elective Course List may be revised from time to time to include new Computational Biology electives that are introduced and approved by the Department of Computer Science.
32 Students are required to read CM1121 Basic Organic Chemistry, and PC1432 Physics IIE towards Unrestricted Electives. Students are encouraged to take up CP3880 Advanced Technology Attachment Programme (ATAP), and special permission must be granted by the Computational Biology coordinator and ATAP coordinator.
|