Overview
Students may enter Second Science from the First Science Area of Study Physics and Astrophysics (CK408), and may proceed to a BSc Single Honours Degree in Astrophysics, Science Education (Physics Route only) (for students who entered prior to 2023/24) or Physics, or a Joint Honours Degree in Mathematical Sciences and Physics.
BSc Single Honours Degree
To progress to Second Science Single Honours Physics students must have passed the First Science Examination overall.
Students registered for the BSc Single Honours Degree in Physics may re-register for the BSc Single Honours in Astrophysics programme (or vice versa) at the end of their First or Second Years, subject to having passed the First Science Examination overall.
Students in the Physics and Astrophysics Area of Study (CK408) wishing to proceed to the Chemical Physics degree programme must have taken either CM1006 (10 credits) or CM1007 (15 credits) from the list of electives for CK408 and passed First Science in order to be eligible for entering the Chemical Physics degree programme.
BSc Joint Honours
Students in the Physics and Astrophysics Area of Study (CK408) who have passed First Science are eligible to enter the Joint Honours programme in Mathematical Sciences and Physics.
Students from the Mathematical Sciences Area of Study (CK407) who have taken the Physics modules PY1052 and PY1053 in First Science, and who pass First Science, will be eligible to enter the Joint Honours programme in Mathematical Sciences and Physics.
The programme structures for Physics are shown in Table 7.
Table 7 - Physics
Physics Table 7
First Science |
Second Science |
Third Science |
Fourth Science |
CK408: |
|
|
|
|
|
Physics |
Physics |
PY + AM + MA + AM/CM/CS/MA/PY/ST/BL |
PY (40 credits) + AM (10 credits) + MA/AM/CM (10 credits) |
PY (40 credits) + AM (20 credits) |
PY (60 credits) |
|
|
or |
or |
|
|
Astrophysics |
Astrophysics |
|
|
PY (45 credits) |
PY (60 credits) |
|
|
AM (15 credits) |
|
BSc Joint Honours |
|
|
|
CK408: |
|
|
|
PY + AM + MA + ST |
PY (30 credits) + AM (25 credits) + MA (5 credits) |
PY (30 credits) + AM (30 credits) |
PY (30 credits) + AM (30 credits) |
|
or |
or |
|
|
PY (30 credits) + AM (10 credits) + MA (20 credits) |
PY (30 credits) + MA (30 credits) |
PY (30 credits) + MA/MF (30 credits) |
BSc Single Honours - Physics or Astrophysics
NOTES:
- At most 35 credits can be taken in any one Semester.
- The substitution of taught modules by Project modules requires special permission from the Head of the Department.
- Other Elective modules may be selected from outside the Physics Department with the approval of the Head of Department.
- Individual elective modules may occasionally not be offered in some calendar years.
Examinations
Single Honours
Students who pass the Third University Examination and qualify to proceed into Fourth Science may opt instead to be conferred with a BSc Ordinary Degree.
Students who pass the Third University Examination in Science, but do not qualify to proceed into Fourth Science will be awarded a BSc Ordinary Degree.
Joint Honours
Students who pass the Third University Examination in Science (Physics) and who qualify to proceed into Fourth Science may opt instead to be conferred with a BSc Ordinary degree.
The Fourth Science Research Project must be passed for the award of a BSc (Hons) Degree. There is no Autumn Supplemental Examination in the Research Project module which, if failed, must be repeated in a repeat year.
BSc Ordinary Degree - NFQ Level 7, Major Award
Students who pass Third Year may choose not to proceed to Fourth Year and may opt instead to be conferred with a BSc Ordinary Degree.
Programme Requirements
For information about modules, module choice, options and credit weightings, please go to Programme Requirements.
Programme Requirements
Module List
Code |
Title |
Credits |
| |
| |
AM1052 | Introduction to Mechanics | 5 |
PY1052 | Introductory Physics I | 10 |
PY1053 | Introductory Physics II | 10 |
MA1011 | Mathematical Methods I | 5 |
MA1012 | Mathematical Methods II | 5 |
ST1051 | Introduction to Probability and Statistics | 5 |
| 20 |
AM1053 | Introduction to Mathematical Modelling | 5 |
AM1054 | Mathematical Software | 5 |
BL1002 | Cells, Biomolecules, Genetics and Evolution | 5 |
BL1004 | Physiology and Structure of Plants and Animals | 5 |
BL1006 | Habitats and Ecosystems | 5 |
CM1006 | Introduction to Chemistry for Physicists and Mathematicians | 10 |
CM1007 | Introduction to Chemistry for Physicists | 15 |
CS1061 | Programming in C | 5 |
CS1065 | Computer Applications Programming | 5 |
CS1068 | Introductory Programming in Python | 5 |
MA1057 | Introduction to Abstract Algebra | 5 |
PY1054 | Special Topics in Physics | 5 |
ST1050 | Statistical Programming in R | 5 |
| |
PY1052 | Introductory Physics I | 10 |
PY1053 | Introductory Physics II | 10 |
AM1052 | Introduction to Mechanics | 5 |
MA1058 | Introduction to Linear Algebra | 5 |
MA1059 | Calculus | 5 |
MA1060 | Introduction to Analysis | 5 |
ST1051 | Introduction to Probability and Statistics | 5 |
| 15 |
| Introduction to Mathematical Modelling | |
| Mathematical Software | |
| Cells, Biomolecules, Genetics and Evolution | |
| Physiology and Structure of Plants and Animals | |
| Habitats and Ecosystems | |
| Introduction to Chemistry for Physicists and Mathematicians | |
| Introduction to Chemistry for Physicists | |
| Programming in C | |
| Computer Applications Programming | |
| Introductory Programming in Python | |
| Introduction to Abstract Algebra | |
| Special Topics in Physics | |
| Statistical Programming in R | |
| |
PY1052 | Introductory Physics I | 10 |
PY1053 | Introductory Physics II | 10 |
MA1058 | Introduction to Linear Algebra | 5 |
MA1059 | Calculus | 5 |
MA1060 | Introduction to Analysis | 5 |
CM1007 | Introduction to Chemistry for Physicists | 15 |
| 10 |
| Cells, Biomolecules, Genetics and Evolution | |
| Physiology and Structure of Plants and Animals | |
| Habitats and Ecosystems | |
| |
PY2101 | Classical Mechanics | 5 |
PY2102 | Introduction to Quantum Physics | 5 |
PY2103 | Electrostatics and Magnetostatics | 5 |
PY2104 | Introduction to Thermodynamics and Statistical Physics | 5 |
PY2105 | Introduction to Computational Physics | 5 |
PY2106 | Introduction to Astrophysics and Special Relativity | 5 |
PY2107 | Experimental Physics I | 5 |
PY2108 | Experimental Methods I | 5 |
AM2060 | Object Oriented Programming with Applications | 5 |
AM2071 | Transform and Variational Methods | 5 |
MA2071 | Multivariable Calculus | 5 |
| 5 |
| Mathematical Modelling (5) | |
| Ordinary Differential Equations (5) | |
| Linear Algebra (5) | |
| |
PY3101 | Optics | 5 |
PY3102 | Quantum Mechanics | 5 |
PY3103 | Electromagnetism | 5 |
PY3104 | Statistical Thermodynamics | 5 |
PY3105 | Introduction to Condensed Matter Physics | 5 |
PY3106 | Nuclear and Particle Physics | 5 |
PY3107 | Experimental Physics II | 5 |
PY3108 | Experimental Methods II | 5 |
PY3109 | Observational Astrophysics | 5 |
AM2061 | Computer Modelling and Numerical Techniques | 5 |
AM3051 | Vector and Tensor Methods | 5 |
| 5 |
| Introduction to Fluid Mechanics and Wave Theories (5) | |
| Topics in Applied Mathematics (5) | |
| |
| |
PY4110 | Stars and the Interstellar Medium | 5 |
PY4111 | Galactic and Extragalactic Astrophysics | 5 |
PY4112 | Gravitation and Cosmology | 5 |
PY4115 | Research Project | 10 |
| |
| 35 |
| Introduction to Fluid Mechanics and Wave Theories (5) | |
| Advanced Quantum Mechanics (5) | |
| Advanced Electromagnetism (5) | |
| Advanced Condensed Matter Physics (5) | |
| Atomic and Molecular Physics (5) | |
| Relativistic Quantum Theory (5) | |
| Introduction to Lasers and Photonics (5) | |
| Advanced Computational Physics (5) | |
| Experimental Physics III (5) | |
| Quantum Optics (5) | |
| Physics of Semiconductor Devices (5) | |
Examinations
Full details and regulations governing Examinations for each programme will be contained in the Marks and Standards Book and for each module in the Book of Modules.
Programme Learning Outcomes
Programme Learning Outcomes for BSc in Astrophysics (NFQ Level 8, Major Award)
On successful completion of this programme, students should be able to:
- Derive and apply solutions from knowledge of physics, astrophysics, and mathematics;
- Identify, formulate, analyse and solve physics and astrophysics problems;
- Design an experiment to test a hypothesis or theory in physics and astrophysics;
- Prepare written laboratory reports that provide a description of the experiment, explain the experiment and reasoning clearly, and provide an appropriate conclusion;
- Communicate effectively with the physics and astrophysics communities.