Course image 23-24 PH4320: Advanced Astrophysics
Physics
Learning Objectives:
Astrophysical techniques and statistical methods
Radiative processes in astrophysics
Astrophysical dynamics: planets, stars, galaxies
Stellar structure and evolution, nuclear astrophysics, compact stars
High-energy astrophysics
Learning Outcomes:
Understand astrophysics topics at a level that provides a foundation for independent research
Understand and apply related mathematical tools.
Course image 23-24 PH4442: Advanced Particle Physics
Physics
The goal of the course is to introduce advanced concepts of particle physics,
including relativistic quantum mechanics, propagator theory to derive Feynman rules, differential cross sections and decay rates; weak interactions (helicity, chirality, V-A theory); neutrino physics; Standard Model and Higgs mechanism; QCD and LHC physics.
Course image 23-24 PH1110: Mathematics For Scientists 1
Physics
The course introduces students to some of the basic mathematical techniques relevant to undergraduate physics and Engineering and helps to develop students’ skills in solving mathematical problems.
Course image 23-24 PH1120: Mathematics For Scientists 2
Physics
Aims: Following on from PH1110, to introduce students to more advanced mathematical concepts used in undergraduate physics courses and to develop further problem-solving skills.
Course image 23-24 PH1140: Scientific Skills 1
Physics
Aims: To introduce students to a range of skills in the scientific laboratory.
Learning outcomes: Scientific, laboratory and transferable skills (including computing and communication skills), understanding and knowledge of the application of these skills in physics.
Learning outcomes: Scientific, laboratory and transferable skills (including computing and communication skills), understanding and knowledge of the application of these skills in physics.
Course image 23-24 PH1320: Classical Mechanics
Physics
On completion of the course, students should be able to apply from first principles and from memory the techniques and formulae of mathematical analysis to solve problems in classical mechanics and derive standard formulae.
Course image 23-24 PH1620: Classical Matter
Physics
Aims: introduction to the science of matter; reinforcement of scientific thinking, reasoning and modelling; training of problem solving ability and numeracy
Learning outcomes: understand the macroscopic properties of the various states of matter; have familiarity with the variables and properties used in the description of matter; be able to describe microscopic models accounting for some of these properties; understand changes of phase of matter
Learning outcomes: understand the macroscopic properties of the various states of matter; have familiarity with the variables and properties used in the description of matter; be able to describe microscopic models accounting for some of these properties; understand changes of phase of matter
Course image 23-24 PH1920: Physics of the Universe
Physics
The aim of the course is to introduce students to fundamental ideas of special relativity, quantum mechanics and astrophysics. All material is essential for more advanced courses in these areas.
Course image 23-24 PH2130: Mathematical Methods
Physics
A course on mathematical methods for physics. In the examples classes there is a strong emphasis on the practical solution of physics problems.
Course image 23-24 PH2150: Scientific Computing Skills
Physics
A beginners course in scientific programming, based on Python, which will develop students scientific computing skills such that they can solve and visualise physics problems related to the first two years of the undergraduate programme. A series of lectures and exercises to improve your employability skills have been integrated into the course,
Course image 23-24 PH2210: Quantum Mechanics
Physics
This course is an introduction to Quantum Mechanics - the physical theory required to describe the behaviour of sub-atomic particles.
Course image 23-24 PH2310: Optics
Physics
Introduces the fundamental principles
of Geometric and Physical Optics, including: image formation by refractive lens systems; interference by division of amplitude; Fraunhofer and Fresnel diffraction; resolving power; polarisation and the essentials of lasers.
Course image 23-24 PH2710: The Solid State
Physics
The aim of the module is to provide an understanding of the physical properties of solids.
On completion of the module students should be able to:
• demonstrate an understanding of the basic physical properties solids;
• apply this understanding to simple problems.
On completion of the module students should be able to:
• demonstrate an understanding of the basic physical properties solids;
• apply this understanding to simple problems.
Course image 23-24 PH3010: Advanced Skills
Physics
Aims: to enable you to plan and carry out longer assignments, which require significant preparation and/or advanced statistical data analysis. To effect a transition from the routine experiments and skills encountered in the second year to BSc or MSci projects.
By the end of the course you should be able to show your ability to plan, execute and write up a mini-project report. You should also be to give a clear and concise oral presentation on your mini-project work.
By the end of the course you should be able to show your ability to plan, execute and write up a mini-project report. You should also be to give a clear and concise oral presentation on your mini-project work.
Course image 23-24 PH3040: Energy and Climate Science
Physics
This course introduces the main concepts of the generation, transmission, storage and usage of energy (conventional and renewables). It also introduces the main concepts driving the Earth's climate and the issues (including political) surrounding climate change.
Course image 23-24 PH3110: Experimental Or Theoretical Project
Physics
Experimental or Theoretical extended project for final year BSc students.
Course image 23-24 PH3130/PH4130: Advanced Classical Physics
Physics
Introduction to advanced topics and methods used in classical physics
(mechanics, electromagnetism, relativity) with applications. Learning outcomes: See General Module Information > Specification.
Course image 23-24 PH3210: Quantum Theory
Physics
The module aims to explain the main ideas and formalism of quantum mechanics, and to examine exact and approximate methods of solving quantum problems.
Course image 23-24 PH3510: Atomic Physics
Physics
Aims: to apply the principles of quantum mechanics (from courses PH2210,
PH3210) to many electron atomic systems. To build quantitative models to
understand and predict the behaviour of multi-electron atoms, which
were introduced qualitatively in PH1920. To understand experimental
spectroscopy techniques and compare with model predictions.
On completion of the course, students should be able to:
• understand the basic theoretical physics of atoms and the interaction between
radiation and matter;
• understand the experimental techniques and results;
• appreciate the quantitative validity of models in describing the properties and
behaviour of atoms, when comparing to experiments;
• being able to generalize atomic physics concepts to nuclear and molecular
physics
Course image 23-24 PH3520: Particle Physics
Physics
This course introduces the main concepts of particle physics, analyses the basic properties of the fundamental constituents of matter and their interactions, discusses experimental methods and technologies used in high-energy physics.
Course image 23-24 PH3530: Particle Detectors and Accelerators
Physics
An introduction to the physical principles underlying the operation of modern particle accelerators and of multi-purpose detectors in high-energy physics.
Course image 23-24 PH3710: Metals and Semiconductors
Physics
Aims: To learn about the physics and applications of metals and semiconductors. To enhance problem solving skills and self study skills.
Learning Outcomes: An understanding of the physics and applications of these two important classes of materials; ability to answer related problems.
Learning Outcomes: An understanding of the physics and applications of these two important classes of materials; ability to answer related problems.
Course image 23-24 PH3920: Stellar Astrophysics
Physics
Introduction to the physics of stars, including formation, evolution and ultimately death. The course uses basic physics such as gravitation, thermodynamics, nuclear reactions and radiation that are applied to the interior of starts.
Course image 23-24 PH3930: Particle Astrophysics
Physics
Course leader: Prof. Stephen West
Stephen.West@rhul.ac.uk
Office: W255
Stephen.West@rhul.ac.uk
Office: W255
Course image 23-24 PH4110: Research Review
Physics
This course enables the student to examine and explain a current research topic in physics through the study of appropriate research literature, guided by an allocated academic supervisor.