BSc Physics with a Year in Industry

Key details

BSC PHYSICS WITH A YEAR IN INDUSTRY

Start Year

2021

Attendance

Full Time

Award

Degree of Bachelor of Science

Entry Requirements

AAB

Physics is concerned with the most fundamental questions about nature. It’s an inspiring subject that enables you to cultivate your abstract, creative reasoning and your practical, applied knowledge.

During the first two years of this four-year degree, you’ll explore some major themes in physics. You will also have the opportunity, with our support, to secure a placement in a commercial or academic situation.

Your third year will be spent working at your placement. This will enable you to develop additional skills and networks that will be of immense benefit after you graduate. In your final year, in addition to continuing to study the major themes of physics, you’ll do a project where you have the chance to research a specific topic of your choice.

Throughout the course you will develop an impressive range of transferable skills in mathematics, communication and collaborative work. You will also build practical professional skills in areas like academic research, analytical problem solving and computing. These are highly sought-after skills for which employers in several sectors specifically prefer physics graduates.

Physics is not only a fascinating discipline, but a highly regarded qualification too. Study with us at UEA and you’ll develop a deep curiosity about the workings of our universe and gain powerful scientific skills to employ in a huge range of areas, so you’ll leave as a highly employable graduate.

Our four-year degree programme introduces you to many of the major themes in physics in your first year, before providing more advanced teaching in the second and fourth years, when you can specialise in a particular field. Your course will culminate in a final year project, giving you the chance to research a topic in more detail. Your third year will be spent on placement.

About

To study physics is to ask questions – to interrogate everything. What is the nature of matter? What are the origins of the universe? What is the basis for the mechanics of sound? And how will that ocean wave move next? Incredibly diverse, abstract and yet also creative, without physics, there would be no answers to many of the questions we face, from the smallest to the most vast.

Study physics at UEA and you’ll be joining a multidisciplinary faculty with a thriving research community that includes specialist groups with expertise in geophysics, astrophysics, fluid mechanics, chemical physics and quantum physics. You will take advantage of top-class facilities, including spectroscopy and ultrafast laser equipment, high-tech geophysics apparatus and experimental wave tanks. And you’ll be able to tailor your degree with a large range of optional modules.

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Important Information

Whilst the University will make every effort to offer the courses listed, changes may sometimes be made arising from the regular review of course programmes. Where this activity leads to significant (but not minor) changes to programmes, there will normally be prior consultation of students and others. Changes may for example consist of variations to the content and method of delivery of programmes, courses and other services, to discontinue programmes, courses and other services and to merge or combine programmes or courses. The University will endeavour to keep such changes to a minimum, and will inform students.

Assessment for Year 1

We employ a range of assessment methods to best reflect each module and what we hope you will gain from it.

Assessments will usually feature a combination of practical reports, data handling, project work, dissertations, course tests and examinations.

At the end of each year you will be assessed on the basis of coursework, and for some modules project and examination results. For each module you will have the chance to test your skills with two practice or ‘formative’ assignments. That assignment might be a coursework essay, project or exam. Your final year is assessed by coursework, document work, a special subject dissertation and examinations on your special subject in the period after Easter.

The balance of assessment by coursework and exam depends on the modules you choose, but on average Level 4 is 30% coursework and 70% exam, Level 5 is 30% coursework and 70% exam. Level 6 is a placement year which is 100% coursework and is pass/fail – it does not count to your overall degree. The final year is 50% coursework, including a piece of project work, and 50% exam.

Feedback

You will get feedback on your practice assignments from your tutors. The purpose of the feedback is to help you improve your work before your final formal or ‘summative’ assignment and we encourage you to discuss your feedback with your teachers.

For practice assignments we always aim to give you with feedback within 10 working days after you hand it in. For formal assignments we aim for within 20 working days.

Structure

Our three-year degree programme introduces you to many of the major themes in physics in your first year, before providing more advanced teaching in the second and third years, when you can specialise in a particular field. Your course will culminate in a final year project, giving you the chance to research a topic of your own choosing.

Your first year will consist of six compulsory modules, giving you a solid grounding in a wide range of topics. You’ll be introduced to key physics concepts, develop crucial mathematical and laboratory skills, and learn about some of the scientific fields that these skills can be applied to. Modules cover topics including light, acoustics, mechanics, electromagnetism, geophysics and astrophysics.

Teaching and Learning

Our teaching combines lectures, small-group seminars, workshops and practical sessions, with some including an element of programming.

Our group sessions are informal and allow you raise questions related to lectures, and find solutions to problems set by tutors. We also actively encourage you to discuss academic matters with your tutors on a one-to-one basis.

You’ll use laboratory sessions to perform experiments related to subjects from the lecture programme. They’ll be supervised by lecturers or postgraduate students, who will ensure that experiments are safely executed and will discuss the theory behind them.

Independent study

You will have plenty of opportunity for independent study throughout your degree programme as you complete coursework and prepare for exams. However, your final year research project will truly exemplify your independent work, allowing you to get to grips with an aspect of physics that really interests you.

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Assessment for Year 2

We employ a range of assessment methods to best reflect each module and what we hope you will gain from it.

Assessments will usually feature a combination of practical reports, data handling, project work, dissertations, course tests and examinations.

Feedback

For practice assignments we always aim to give you with feedback within 10 working days after you hand it in. For formal assignments we aim for within 20 working days.

Structure

Your second year will enable you to start selecting modules that interest you. Options will cover such topics as electronics, oceanography, meteorology, geophysics and renewable energy.

You’ll build on what you’ve learnt in year 1, with teaching in physics topics and laboratory, mathematics for scientists, quantum mechanics and thermodynamics.

You will also spend some time securing a placement for Year 3.

Teaching and Learning

Our teaching combines lectures, small-group seminars, workshops and practical sessions, with some including an element of programming.

Independent study

Admissions Live Chat

Open Days

Assessment for Year 3

We employ a range of assessment methods to best reflect each module and what we hope you will gain from it.

Assessments will usually feature a combination of practical reports, data handling, project work, dissertations, course tests and examinations.

Structure

At least nine months of this year will be spent at your placement. During this time you will experience physics being applied in a commercial (or academic) setting.

Teaching and Learning

Our teaching combines lectures, small-group seminars, workshops and practical sessions, with some including an element of programming.

Independent study

Admissions Live Chat

Open Days

Assessment for Year 4

We employ a range of assessment methods to best reflect each module and what we hope you will gain from it.

Assessments will usually feature a combination of practical reports, data handling, project work, dissertations, course tests and examinations.

Structure

In your final year you will be able to direct your own learning by selecting optional modules from the huge range we offer. You’ll also be taught advanced physics topics and laboratory skills.

Your independent research project will form a large part of your final year of study. Working with an expert supervisor, you will be able to delve deeper into a real problem in physics.

Teaching and Learning

Our teaching combines lectures, small-group seminars, workshops and practical sessions, with some including an element of programming.

Independent study

Admissions Live Chat

Open Days

Assessment for Year 1

We employ a range of assessment methods to best reflect each module and what we hope you will gain from it.

Assessments will usually feature a combination of practical reports, data handling, project work, dissertations, course tests and examinations.

Feedback

For practice assignments we always aim to give you with feedback within 10 working days after you hand it in. For formal assignments we aim for within 20 working days.

Compulsory Modules

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Important Information

Whilst the University will make every effort to offer the modules listed, changes may sometimes be made arising from the annual monitoring and review of modules. Where this activity leads to significant change to a programme and modules, the University will endeavour to consult with affected students. The University may not be able to offer a module for reasons outside of its control, such as the illness of a member of staff. Availability of optional modules may be restricted owing to timetabling, lack of demand, or limited places. Where this is the case, you will be asked to make alternative module choices and you will be supported during this process.

Assessment for Year 2

We employ a range of assessment methods to best reflect each module and what we hope you will gain from it.

Assessments will usually feature a combination of practical reports, data handling, project work, dissertations, course tests and examinations.

Feedback

For practice assignments we always aim to give you with feedback within 10 working days after you hand it in. For formal assignments we aim for within 20 working days.

Compulsory Modules

LIGHT, ATOMS AND MOLECULES

Code CHE-4202Y

Credits 20

This module introduces students to the major areas of classical physical chemistry: chemical kinetics, chemical thermodynamics, and electrolyte solutions as well as spectroscopy. Chemical kinetics will consider the kinetic theory of gases and the rate of processes, in particular either in the gas phase or in solution. The appropriate theoretical basis for understanding rate measurements will be developed during the course, which will include considerations of the order of reaction, the Arrhenius equation and determination of rate constants. Thermodynamics deals with energy relationships in large assemblies, that is those systems which contain sufficient numbers of molecules for 'bulk' properties to be exhibited and which, are in a state of equilibrium. Properties discussed will include the heat content or enthalpy (H), heat capacity (Cp, Cv), internal energy (U), heat and work. The First Law of Thermodynamics will be introduced and its significance explained. It is very important that scientists have an understanding of the behaviour of ions in solution, which includes conductivity and ionic mobility. The interaction of radiation with matter is termed spectroscopy. Three main topics will be discussed: (i) ultraviolet/visible (UV / Vis) spectroscopy, in which electrons are moved from one orbital to another orbital; (ii) infrared (vibrational) spectroscopy, a technique which provides important information on the variety of bond types that a molecule can possess; (iii) nuclear magnetic resonance spectroscopy (NMR), which allows 'molecular skeletons' to be identified.

ELECTROMAGNETISM, OPTICS, RELATIVITY AND QUANTUM MECHANICS

Code PHY-4001Y

Credits 20

This module gives an introduction to important topics in physics, with particular, but not exclusive, relevance to chemical and molecular physics. Areas covered include optics, electrostatics and magnetism and special relativity. The module may be taken by any science students who wish to study physics beyond A Level.

MATHEMATICS FOR SCIENTISTS A

Code ENV-4015Y

Credits 20

You will cover differentiation, integration, vectors, partial differentiation, ordinary differential equations, further integrals, power series expansions, complex numbers and statistical methods as part of this module. In addition to the theoretical background there is an emphasis on applied examples. Previous knowledge of calculus is assumed. This module is the first in a series of three maths modules for those across the Faculty of Science that provide a solid undergraduate mathematical training. The follow-on modules are Mathematics for Scientists B and C. Recommended if you have grade A*-C at A-level Mathematics, or equivalent.

GEOPHYSICS AND ASTROPHYSICS

Code PHY-4003A

Credits 20

In this module, you will learn about the methods used to model the physics of the Earth and Universe. You will explore the energy, mechanics, and physical processes underpinning Earth's systems. This includes the study of its formation, subsequent evolution and current state through the understanding of its structure and behaviour - from our planet's interior to the dynamic surface and into the atmosphere. In the second part of this module, you will study aspects of astrophysics including the history of astrophysics, radiation, matter, gravitation, astrophysical measurements, spectroscopy, stars and some aspects of cosmology. You will learn to predict differences between idealised physics and real life situations. You’ll also improve your skills in problem solving, written communication, information retrieval, poster design, information technology, numeracy and calculations, time management and organisation.

ACOUSTICS AND LABORATORY IN PHYSICS

Code PHY-4004Y

Credits 20

One half of the module will cover the physics of acoustics, especially with relation to music and musical instruments. The Matlab programming environment will be introduced and used to analyse a series of sounds. These analyses will form the basis for a written report on those sounds. The other half of the module will be a practical laboratory. A variety of experiments will be carried out and the data analysis written up in report format.

COMPUTATION AND MODELLING

Code MTHA4007B

Credits 20

Computation and modelling are essential skills for the modern mathematician. While many applied problems are amenable to analytic methods, many require some numerical computation to complete the solution. The synthesis of these two approaches can provide deep insight into highly complex mathematical ideas. This module will introduce you to the art of mathematical modelling, and train you in the computer programming skills needed to perform numerical computations. A particular focus is classical mechanics, which describes the motion of solid bodies. Central to this is Newton’s second law of motion, which states that a mass will accelerate at a rate proportional to the force imposed upon it. This leads to an ordinary differential equation to be solved for the velocity and position of the mass. In the simplest cases, the solution can be constructed using analytical methods, but in more complex situations, for example motion under resistance, numerical methods may be required. Iterative methods for solving nonlinear algebraic equations are fundamental and will also be studied.

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Important Information

Assessment for Year 3

We employ a range of assessment methods to best reflect each module and what we hope you will gain from it.

Assessments will usually feature a combination of practical reports, data handling, project work, dissertations, course tests and examinations.

Compulsory Modules

QUANTUM THEORY AND SYMMETRY

Code CHE-5250Y

Credits 20

You’ll cover the foundation and basics of quantum theory and symmetry, starting with features of the quantum world and including elements of quantum chemistry, group theory, computer-based methods for calculating molecular wavefunctions, quantum information, and the quantum nature of light. The subject matter paves the way for applications to a variety of chemical and physical systems – in particular, processes and properties involving the electronic structure of atoms and molecules.

TOPICS AND LABORATORY IN PHYSICS

Code PHY-5003Y

Credits 20

This module explores physics as an empirical science through a series of laboratory experiments that probe key concepts and physical laws. The laboratory sessions will be underpinned by associated teaching surrounding the studied phenomena, and will complement topics addressed in other modules in the physics course.

HEAT, ATOMS AND SOLIDS

Code PHY-5004Y

Credits 20

Exploring fundamental aspects of thermodynamics and condensed matter physics, you’ll be introduced to ideas about the electronic structure based on the free-electron Sommerfeld and band theories, along with the concept of phonons and their contribution to the heat capacity of a solid. Also you’ll consider the structure, bonding and properties of solids, in particular electronic conductivity and magnetism, as well as atomic structure and atomic spectroscopy, and Entropy in terms of a macroscopic Carnot cycle and the statistical approach. Two important distributions of particles will be treated; Bose-Einstein and Fermi-Dirac. Changes of state, 1st and 2nd order phase transitions and the Clausius–Clapeyron equation will be described.

MATHEMATICS FOR SCIENTISTS B

Code MTHB5010A

Credits 20

Matrix algebra: Introduction to matrices. Systems of linear equations. Solving systems of linear equations using elementary operations. Matrices and systems of linear equations. Gaussian elimination, row echelon form and back-substitution. Reduced row echelon form; use of rank to distinguish cases of no solution, unique solution, infinitely many solutions. Matrix inversion. Determinants. Linear independence, calculation of eigenvalues and eigenvectors. Numerical methods: Numerical methods for solving matrix systems. Iterative methods including Jacobi iteration and Gauss-Seidel iteration. Convergence criteria. Interpolation. Numerical differentiation and integration. Numerical integration of ODEs. Elements of programming in Python (or Matlab): Defining and manipulating variables. Arrays. Data input and graphics output. Functions. If/Then statements and For loops. Programs implementing numerical methods for systems of linear equations, nonlinear equations and integration of ODEs. Fourier series and Fourier transforms: Introduction to time series. Frequency domain. Definition and properties. Examples of transforms. Techniques for inverse transforms. Application to integral equations. Application to linear ODEs and PDEs Second-order partial differential equations: Basic concepts and definitions, wave equation, heat conduction equation, Laplace's equation. The method of separation of variables. Application of this method for solving initial/boundary value problems associated with the aforementioned P.D.E.'s. D'Alembert's solution for the wave equation. Application for solving initial value problems for the wave equation on infinite and semi-infinite domains.

MATHEMATICS FOR SCIENTISTS C

Code MTHB5011B

Credits 20

Vector calculus: Scalar fields, gradient, directional derivative, level surfaces. Vector fields, divergence, Laplacian, curl, divergence theorem, Stokes's theorem, solenoidal vector fields, irrotational vector fields. Velocity potential, horizontal divergence. Uniform stream. Mass source Fluid dynamics: Basic concepts. Introduction. Continuum hypothesis. Pressure. Hydrostatic pressure. Buoyancy and Archimedes' principle. Material derivative. Streamlines. Stream tubes. One-dimensional flows. Conservation of mass. Bernoulli's equation. Flow over an obstacle. Hydraulic jump. Two and three-dimensional flows. Conservation of mass. Streamlines. Forces. Euler's equations of motion. Bernoulli's equation in generality. Rotation and vorticity. Rotation. Vorticity, velocity and streamfunction. Line vortex. Irrotational, incompressible flow and the velocity potential. Velocity potential. Horizontal divergence. Uniform stream. Line source. Real flows with both rotation and divergence. Vortices and time-mean wind field. Water waves. Modelling and boundary conditions. Linear theory of surface gravity waves. Phase speed and group speed. Deep water & shallow water approximations. Particle orbits. Solid mechanics: Theory of stress and strain for linear elasticity. Traction on a surface, resultant force and torque, normal and shear stresses. Principle stresses and strains. Equations of equilibrium, and constitutive law for isotropic linearly elastic solids. Examples of simple deformations and elastic waves.

Optional A Modules

(20 credits)

PHYSICAL CHEMISTRY I

Code CHE-5201Y

Credits 20

The module covers a number of areas of modern physical chemistry which are essential to a proper understanding of the behaviour of chemical systems. These include the second law of thermodynamics and entropy, qunatum mechanics, the thermodynamics of solutions and chemical kinetics of complex reactions. The module includes laboratory work. Due to the laboratory-based content on this module students must have completed at least one Level 4 module containing laboratory work.

PROGRAMMING FOR NON-SPECIALISTS

Code CMP-5020B

Credits 20

You will be introduced to a number of programming concepts at the start of your programming career, using a modern programming language common to many digital industries, with specific focus on applications within STEM fields. We structure learning through lectures, delivering core materials, and tutor supported exercises to reinforce learning, and to prepare you for programming in your following studies.

ANALOGUE AND DIGITAL ELECTRONICS

Code CMP-5027A

Credits 20

A practical introduction to electronics, this module is structured to consider analogue electronics and digital electronics in turn. Topics you’ll cover include passive and active components, including op-amps, transistors, logic gates, flip-flops and registers. Circuits you’ll study include amplifiers, oscillators, modulators, combinational and sequential logic and state machines. You’ll spend much of your time doing practical work – underpinned by lectures – where you will build prototypes circuits, as well as designing and building Printed Circuit Boards (PCBs).

RENEWABLE ENERGY

Code ENG-5002B

Credits 20

This module builds on understanding in wind, tidal and hydroelectric power and introduces theories and principles relating to a variety of renewable energy technologies including solar energy, heat pumps and geothermal sources, fuel cells and the hydrogen economy, biomass energy and anaerobic digestion. You will consider how these various technologies can realistically contribute to the energy mix. You will study the various targets and legislative instruments that are used to control and encourage developments. Another key aspect of the module is the study and application of project management and financial project appraisal techniques in a renewable energy context.

DYNAMICS AND VIBRATION

Code ENG-5004B

Credits 20

You will build on the introductory material you gained in first year engineering mechanics. An appreciation of why dynamics and vibration are important for engineering designers leads to consideration of Single-degree-of-freedom (SDOF) systems, Equation of motion, free vibration analysis, energy methods, natural frequency, undamped and damped systems and loading. Fourier series expansion and modal analysis are applied to vibration concepts: eigenfrequency, resonance, beats, critical, under-critical and overcritical damping, and transfer function. Introduction to multi-degree of freedom (MDOF) systems. Applications to beams and cantilevers. MathCAD will be used to support learning.

EXPLORING THE EARTH'S SUBSURFACE

Code ENV-5004B

Credits 20

In this module you will learn about the processes that shape the Earth's shallow subsurface, and how to detect and map subsurface structures and resources. Physical properties of solid materials and subsurface fluids will be explored, including how fluid movement affects these properties. Methods to image the subsurface will be introduced using real datasets, collected by the class where possible. We will apply the theory to real-life problems including risk mitigation, engineering and resource exploration. This module will include fieldwork on campus where possible, specialist computer software, and some light mathematical analysis (trigonometry, rearranging linear equations, logarithms).

ENERGY TRANSITIONS

Code ENV-5022B

Credits 20

This module examines the complexities of the transition to low carbon energy systems. It draws on a range of disciplines, theories and perspectives to critically examine many of the key challenges. It begins by exploring how we can understand energy systems and how they differ across space and time. The module draws on historical analyses to understand how energy systems have evolved in the past, as well as examining the different ways in which we can imagine the future of energy. Students will gain an in-depth understanding of the complexities of changing energy systems, enabling them to critically engage with debates around future “energy transitions”, the role that innovation and emergent technologies might play, and the various challenges of shifting towards renewable based energy systems.

WEATHER

Code ENV-5043A

Credits 20

The weather affects everyone and influences decisions that are made continuously around the world. From designing and siting a wind farm to assessing flood risk and public safety, weather plays a vital role. Have you ever wondered what actually causes the weather we experience, for example why large storms are so frequent across north western Europe, especially in Winter? In this module you will learn the fundamentals of the science of meteorology. We will concentrate on the physical processes that underpin the radiation balance, thermodynamics, wind-flow, atmospheric stability, weather systems and the water cycle. We will link these to renewable energy and the weather we experience throughout the Semester. Assessment will be based entirely on a set of practical reports that you will submit, helping you to spread your work evenly through the semester. You will learn how Weather is a rich fusion of descriptive and numerical elements and you will be able to draw effectively on your own skill strengths while practising and developing others, guided by Weatherquest’s Meteorologists.

INTRODUCTION TO QUANTUM MECHANICS AND SPECIAL RELATIVITY

Code MTHF5030Y

Credits 20

This module introduces you to quantum mechanics and special relativity. In quantum mechanics focus will be on: 1. Studying systems involving very short length scales – eg structure of atoms. 2. Understanding why the ideas of classical mechanics fail to describe physical effects when sub-atomic particles are involved. 3. Deriving and solving the Schrodinger equation. 4. Understanding the probabilistic interpretation of the Schrodinger equation. 5. Understanding how this equation implies that certain physical quantities such as energy do not vary continuously, but can only take on discrete values. The energy levels are said to be quantized. For special relativity, the general concept of space and time drastically changes for an observer moving at speeds close to the speed of light: for example time undergoes a dilation and space a contraction. These counterintuitive phenomena are however direct consequences of physical laws. The module will also explain the basis of Special Relativity using simple mathematics and physical intuition. Important well-known topics like inertial and non-inertial frames, the Lorentz transformations, the concept of simultaneity, time dilation and Lorentz contraction, mass and energy relation will be explained. The module will end with the implications of special relativity and quantum mechanics on a relativistic theory of quantum mechanics.

STELLAR PHYSICS

Code PHY-5005A

Credits 20

Science arguably began, thousands of years ago, when humans first attempted to understand the behaviour of both the Sun and distant stars. This module provides an introduction to our modern understanding of the physics of stars: their structure, evolution, dynamics, chemistry, and magnetic fields. We will look at many of the diverse kinds of object we call stars, including their origins and the endpoint of their evolution, with a particular focus on our Sun. Much of the physics we will introduce (e.g. magnetohydrodynamics) is important in a terrestrial context too.

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Important Information

Assessment for Year 4

We employ a range of assessment methods to best reflect each module and what we hope you will gain from it.

Assessments will usually feature a combination of practical reports, data handling, project work, dissertations, course tests and examinations.

Compulsory Modules

YEAR IN INDUSTRY

Code PHY-6801Y

Credits 120

This module covers the placement year. You will be undertaking experiential learning as an employee of a suitable organisation or company.

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Important Information

Compulsory Modules

ADVANCED PHYSICS LABORATORY

Code PHY-6003Y

Credits 20

This module explores concepts in physics through a series of advanced laboratory experiments, working in teams. The experiments are underpinned by associated teaching in other modules of the Physics course.

PHYSICS PROJECT

Code PHY-6004Y

Credits 40

This individual research module is compulsory for all students registered on a Physics degree. It comprises supervised research in at least one area of physics. It may involve research partners in other Schools at UEA. The project can involve collection and analysis of data in the laboratory or from a telescope, and/or development of a piece of equipment, and/or development of software or a theoretical/numerical model, and/or analysis of pre-existing data from a variety of sources. It must include independent scientific analysis. It will be assessed by a written report, a presentation, and an online research journal maintained throughout the project.

ADVANCED TOPICS IN PHYSICS

Code PHY-6002Y

Credits 20

On this module you will study a selection of advanced topics in classical physics that provide powerful tools in many applications as well as provide a deep theoretical background for further advanced studies in both classical and quantum physics. The topics include analytical mechanics, electromagnetic field theory and special relativity. Within this module you will also complete a computational assignment, developing necessary skills applicable for computations in many areas of physics

Optional A Modules

(0-20 credits)

PHYSICAL CHEMISTRY I

Code CHE-5201Y

Credits 20

ANALOGUE AND DIGITAL ELECTRONICS

Code CMP-5027A

Credits 20

RENEWABLE ENERGY

Code ENG-5002B

Credits 20

DYNAMICS AND VIBRATION

Code ENG-5004B

Credits 20

EXPLORING THE EARTH'S SUBSURFACE

Code ENV-5004B

Credits 20

WEATHER APPLICATIONS

Code ENV-5009B

Credits 20

This module will build upon material covered in Weather, by covering topics such as synoptic meteorology, weather hazards, micro-meteorology, further thermodynamics and weather forecasting. The module includes a major summative coursework assignment based on data collected on a UEA meteorology fieldcourse in a previous year.

WEATHER APPLICATIONS WITH FIELDCOURSE

Code ENV-5010K

Credits 20

Weather is one of the most popular topics of conversation. But how, specifically, does it present risks and opportunities, to people, organisations and to the wider environment? In this module you will develop a clear understanding of these linkages and an evidence base to draw on in future roles in which weather is a factor. You’ll learn how to confidently source a diverse range of real-time weather information and you’ll practice analysing such data, leading subsequently to successful interpretation and effective communication, both written and in front of the camera. You’ll see, first hand, how meteorology depends upon computer systems for the efficient sharing, processing and visualisation of weather information. Being taught by weather practitioners with long experience of providing weather services to users, you will get the inside track on what it’s like to work in weather. Weather Forecasting is one central theme and application which will provide a focus for learning. How are forecasts made and delivered, who uses forecasts and what are their distinctive needs? Success in forecasting depends in part on a good physical understanding of atmospheric processes - through practical work, we’ll study those processes and use real examples of weather systems and events to reinforce the learning. At the end of the module, through an embedded week-long Easter residential fieldcourse, you’ll apply your enhanced process understanding and forecasting knowledge in a hands-on way to design and implement meteorological field experiments, testing hypotheses through the collection and interpretation of field data collected using weather sensors. You’ll write up your choice of fieldcourse experiment for assessment, after first receiving informal feedback on a related poster presentation.

GLOBAL TECTONICS

Code ENV-5018A

Credits 20

Processes in the Earth’s interior exert a profound influence on all aspects of the Earth’s system, and have done so throughout geological time. This module is designed to explore all aspects of those processes from the creation and destruction of tectonic plates to the structure of the Earth’s interior and the distribution and dissipation of energy within it. This will include: the theory and mechanisms of plate tectonics, the generation of magma and volcanism; the mechanisms behind earthquakes. The geological record of this activity, its evolution and impacts on the Earth will also be discussed.

ENERGY TRANSITIONS

Code ENV-5022B

Credits 20

WEATHER

Code ENV-5043A

Credits 20

STELLAR PHYSICS

Code PHY-5005A

Credits 20

Optional B Modules

(20-40 credits)

SCIENCE COMMUNICATION

Code BIO-6018Y

Credits 20

You will gain an understanding of how science is disseminated to the public and explore the theories surrounding learning and communication. You will investigate science as a culture and how this culture interfaces with the public. Examining case studies in a variety of different scientific areas, alongside looking at how information is released in scientific literature and subsequently picked up by the public press, will give you an understanding of science communication. You will gain an appreciation of how science information can be used to change public perception and how it can sometimes be misinterpreted. You will also learn practical skills by designing, running and evaluating a public outreach event at a school or in a public area. If you wish to take this module you will be required to write a statement of selection. These statements will be assessed and students will be allocated to the module accordingly.

PHYSICAL CHEMISTRY II

Code CHE-6201Y

Credits 20

The module covers a selection of advanced topics in Physical Chemistry including statistical thermodynamics, reaction mechanisms and theories of reaction rates, photochemistry, electrochemistry and diffraction techniques.

CHEMICAL PHYSICS - PHYSICAL CHEMISTRY

Code CHE-6250Y

Credits 20

The module will consist of topics covering important areas of modern physical chemistry and chemical physics. The material will blend together experimental and theoretical aspects of photonics, condensed phase dynamics in molecular and macromolecular fluids and quantum and classical simulations.

THE LEARNING AND TEACHING OF MATHEMATICS

Code EDUB6014A

Credits 20

The aim of the module is to introduce you to the study of the teaching and learning of mathematics with particular focus to secondary and post compulsory level. In this module, you will explore theories of learning and teaching of mathematical concepts typically included in the secondary and post compulsory curriculum. Also, you will learn about knowledge related to mathematical teaching. If you are interested in mathematics teaching as a career or interested in mathematics education as a research discipline, then this module will equip you with the necessary knowledge and skills.

ELECTRICITY GENERATION AND DISTRIBUTION

Code ENG-6001B

Credits 20

This module is highly practical and will allow you to study how electricity is generated and how it is distributed to users. The first part studies DC and AC electricity and looks at how RLC circuits behave through complex phasor analysis. The second part will give you the chance to study electricity generators, beginning with magnetism and Faraday’s Law. Synchronous and asynchronous generators are studied along with application to conventional power stations and to renewable generation (e.g. wind). You'll also look at transformers and transmission lines with a view to distribution of electricity. Voltage conversion methods such as the rectifier, buck and boost converters are examined and finally electricity generation through solar is covered. Your lab classes will build on material from lectures which in turn forms the basis for coursework.

NUCLEAR AND SOLAR ENERGY

Code ENG-6002Y

Credits 20

This module addresses the technical and financial aspects of nuclear power and solar energy, whilst letting you apply your knowledge from the Engineering Practice module to make ethical decisions incorporating health and safety risk assessments. Successful design of nuclear installations requires a detailed quantitative risk analysis within a regulatory framework that imposes high tolerances. Furthermore, you will obtain advanced knowledge and skills for the optimal design and performance analysis for cost-effective configurations of PV systems, solar thermal systems and hybrids to achieve sustainable development. Although these energies are considered cleaner, it is essential to consider the environmental impact and planning law, as well as changing the societal perception of both.

CONTROL SYSTEMS

Code ENG-6007A

Credits 20

Automatic control is essential in any field of engineering and science. Control systems are an integral part of robotic systems, manufacturing systems, self-driven vehicles and any industrial operation and household application involving control of temperature, humidity, flow, pressure, etc. A competent engineer should be familiar with the control theories commonly used nowadays and their practical application. In particular, this module is focused on the analysis and design of control systems based on the classical control theory. Among other topics, this module covers: -Systems modelling using Laplace transforms. -System identification. -Open-loop and closed-loop control systems and the importance of feedback. -Evaluation of systems stability and behaviour using different analysis tools like Bode plots, the Routh-Hurwitz criterion, the Root Locus method or Nyquist plots. -Design and tuning of different common types of controllers, like PID controllers and lead/lag compensators, to meet a variety of design requirements. -Digital control systems. -Programming and operation of PLCs (programmable logic controllers) and its use in automatic industrial systems. -Analysis and design of control systems using Matlab In order to reinforce the learning and engagement, different case studies of industrial applications from local companies are introduced and potentially a site visit.

GEOPHYSICAL HAZARDS

Code ENV-6001B

Credits 20

Geophysical hazards such as earthquakes, volcanic eruptions, tsunamis and landslides have significant environmental and societal impacts. This module focuses on the physical basis and analysis of each hazard, their global range of occurrence, probability of occurrence and their local and global impact. You will address matters such as hazard monitoring, modelling and assessment, and consider approaches towards risk mitigation and the reduction of vulnerability (individual and societal), with an emphasis on their practical implementation. Scenarios and probabilities of mega-disasters are also investigated. All the teaching faculty involved have practical experience of supplying professional advice on these hazards (and related risks) in addition to their own research involvement. A basic knowledge of physical science and of mathematics is assumed e.g. use of logs, exponentials, powers, cosines, rearrangement of equations.

MODELLING ENVIRONMENTAL PROCESSES

Code ENV-6004A

Credits 20

Our aim is to show how environmental problems may be solved from the initial problem, to mathematical formulation and numerical solution. Problems will be described conceptually, then defined mathematically, then solved numerically via computer programming. The module consists of lectures on numerical methods and computing practicals; the practicals being designed to illustrate the solution of problems using the methods covered in lectures. We will guide you through the solution of a model of an environmental process of your own choosing. The skills developed in this module are highly valued by prospective employers.

CLIMATE SYSTEMS

Code ENV-6025B

Credits 20

What sets the mean global temperature of the world? Why are some parts of the world arid whilst others at the same latitudes are humid? This module aims to provide you with an understanding of the processes that determine why the Earth’s climate (defined, for example, by temperature and moisture distribution) looks like it does, what the major circulation patterns and climate zones are and how they arise. You will study why the climate changes in time (and over different timescales), and how we use this knowledge to understand the climate systems of other planets. This module is aimed at you if you wish to further your knowledge of climate, or want a base for any future study of climate change, such as Meteorology/Oceanography.

FLUID DYNAMICS

Code MTHD6020A

Credits 20

Fluid dynamics has wide ranging applications across nature, engineering, and biology. From understanding the behaviour of ocean waves and weather, designing efficient aircraft and ships, to capturing blood flow, the ability the understand and predict how fluids (liquids and gasses) behave is of fundamental importance. This Module considers mathematical models of fluids, particularly including viscosity (or stickiness) of a fluid. Illustrated by practical examples throughout, we develop the governing differential Navier-Stokes equations, and then consider their solution either finding exact solutions, or using analytical techniques to obtain solutions in certain limits (for example low viscosity or high viscosity).

THE PHYSICS OF THE UNIVERSE

Code PHY-6001Y

Credits 20

In this module you will apply physics concepts and mathematical techniques to discover the astrophysics that govern the Universe at various scales, in both time and space. This includes stellar structure and evolution; stellar systems and populations; our Milky Way, other galaxies, and galactic systems; and the early Universe. You will also learn about the observational tools such as telescopes and detectors.

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Entry Requirements

A Levels

AAB including Mathematics and Physics or ABB including Mathematics and Physics with an A in the Extended Project. Science A Levels must include a pass in the practical element

BTEC

Not accepted

Scottish highers

AAAAA including grade B in Mathematics and Physics

Scottish highers advanced

BBC including Mathematics and Physics

Irish leaving certificate

4 subjects at H2 and 2 at H3, including Higher Level Mathematics and Physics

Access course

Pass Access to HE Diploma with Distinction in 36 credits at Level 3 and Merit in 9 credits at Level 3 including 12 credits in Mathematics and 12 credits in Physics

European Baccalaureate

80% overall, including 7 and 8 in Mathematics and Physics (in either order)

International Baccalaureate

33 points including HL6 Mathematics and HL5 Physics or HL5 Mathematics and HL6 Physics

GCSE offer

You are required to have Mathematics and English Language at a minimum of Grade C or Grade 4 or above at GCSE.

Additional entry requirements

A-Level General Studies and Critical Thinking are not accepted.

If you do not meet the academic requirements for direct entry, you may be interested in one of our Foundation Year programmes.

If you do not meet the academic and/or English requirements for direct entry our partner, INTO University of East Anglia offers guaranteed progression on to this undergraduate degree upon successful completion of a preparation programme. Depending on your interests, and your qualifications you can take a variety of routes to this degree:

International Foundation in Mathematics and Actuarial Sciences

International Foundation in Physical Sciences and Engineering

Alternative Qualifications

UEA recognises that some students take a mixture of International Baccalaureate IB or International Baccalaureate Career-related Programme IBCP study rather than the full diploma, taking Higher levels in addition to A levels and/or BTEC qualifications. At UEA we do consider a combination of qualifications for entry, provided a minimum of three qualifications are taken at a higher Level. In addition some degree programmes require specific subjects at a higher level.

Students for whom english is a foreign language

Applications from students whose first language is not English are welcome. We require evidence of proficiency in English (including writing, speaking, listening and reading):

IELTS: 6.0 overall (minimum 5.5 in all components)

We also accept a number of other English language tests. Please click here to see our full list.

If you do not yet meet the English language requirements for this course, INTO UEA offer a variety of English language programmes which are designed to help you develop the English skills necessary for successful undergraduate study:

Interviews

Most applicants will not be called for an interview and a decision will be made via UCAS Track. However, for some applicants an interview will be requested. Where an interview is required the Admissions Service will contact you directly to arrange a time.

Gap year

We welcome applications from students who have already taken or intend to take a gap year.  We believe that a year between school and university can be of substantial benefit. You are advised to indicate your reason for wishing to defer entry on your UCAS application.

Intakes

The course is open to UK and overseas applicants. The annual intake is in September each year.

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Course Reference Number: 1545297

BSc PHYSICS WITH A YEAR IN INDUSTRY