Medical Physics Stream for Natural Science Students
Contents
- Introduction
- Stream Combinations
- Options - year 1, year 2, year 3, year 4
- Further information
Introduction
UCL offers a Natural Sciences degree programme in which you can select two "streams" from different departments to study. We offer a medical physics stream which can be combined with either Biomedical Sciences or Brain, Behaviour and Cognition (details below). You are also welcome to choose our modules as options if you choose other streams.
You can choose to study for a three-year BSc in Natural Sciences or a four-year MSci. The differences are explained on the Natural Sciences website.
Below, we list our modules, their organisers, the year(s) in which Natural Sciences students can take them, and any requirements and recommendations for taking them. To find out more about any module click on the corresponding module name. Note that module information on our other web pages which specifies the year(s) in which Medical Physics students can take the modules does not necessarily apply to Natural Sciences students.
Some of the third and fourth year options require some knowledge of mathematics. If you do not have A level maths, please contact the module organiser prior to enrolling on the module . If you choose the medical physics stream, you are welcome to carry out your research project with us.
Stream Combinations
Medical Physics with Brain, Behaviour and Cognition
Understanding how the brain works is a major international research
challenge. By combining Medical Physics with Brain, Behaviour and
Cognition, you will be able to understand two contrasting sides of this
critical problem. You will learn basic physics and mathematics, while
focussing on medical physics. The medical physics options will tell you
how we can use physics to image and examine the body. The Brain,
Behaviour and Cognition stream will support this with information about
the anatomy and physiology of the brain, from the basic electrical
activity through to deeper processes such as learning and
decision-making. This combination would be well suited to a career in
the neurosciences.
Medical Physics with Biomedical Sciences
Medical physics incorporates a wide range of technologies by which methods drawn from the physical sciences are used to examine, image and treat the body. It includes the modern imaging techniques which have revolutionised medicine, as well as methods such as radiotherapy and physiological measurements. To understand these advanced methods, you need to have a good understanding of physics, so our medical physics stream is supported by physics and maths modules taken from the Physics department. If you combine medical physics with the biomedical sciences stream, not only will you understand the methods used to probe the body, but you will also learn about the anatomy and physiology of the human body, as well as some of the major disease processes. This combination would suit a student interested in a career as a biomedical scientist.
First year
PHAS1423: Modern
Physics, Astronomy & Cosmology [Term 1]
This
module will introduce new concepts in quantum physics that underlie
much of modern physics, astronomy and cosmology, as well as related
fields such as nanoscience. It will include a brief introduction to
medical physics.
PHAS1246: Mathematical
Methods II [Term 2]
This
module aims to provide the mathematical foundations required for the
rest of the course and give you practice in mathematical manipulation
and problem solving.
MPHY1001: Introduction to Medical Imaging [Term 2]
Module Organiser: Prof Jem Hebden
This module forms a fundamental component of the UCL Medical Physics
undergraduate degrees. It provides an introduction to all the major
medical imaging techniques commonly encountered in hospital departments
of radiology and nuclear medicine. The module will be a foundation for
the further pursuit of knowledge of theoretical and practical aspects of
medical imaging which are dealt with in greater detail in the following
years of the Medical Physics degree programmes.
Second year
PHAS2444:
Practical Physics [Term 1]
Intended for students following the Natural Sciences degree programme, this module aims to build on and extend the skills acquired in the First Year Lab module.
MPHY2001:
Physics of the Human Body [Term 2]
Module Organiser: Prof Alan Cottenden
This module describes some of the the physics and engineering
principles needed to understand how the body works. It will include
lectures on biofluid mechanics, the physics of the senses and
homeostasis.
MPHY2002: Introduction to Biophysics [Term 2]
Module Organiser: Dr Adrien Desjardins
Biophysics is the physics of the molecules and cells
which make up the body. The module will include the physics of energy
transfer processes at the microscopic level and a description of cell
membranes and electrophysiology.
Third year
MPHY3890: Medical
Imaging with Ionising Radiation [Term 2]
Module Organiser: Dr Sandro Olivo
The most frequently undertaken clinical investigation apart from the analysis
of a blood sample is the use of ionising radiation to image or investigate
the functioning of an organ. This module covers the theoretical background
to the formation and analysis of such images and uses clinical examples to
illustrate the application of the imaging systems. It covers both planar
and cross sectional imaging using x-ray and gamma ray sources. The aim of
the course is to provide an appropriate theoretical framework for understanding
the formation and assessment of images using ionising radiation.
MPHY3892: Treatment
using Ionising Radiation [Term 1]
Module Organiser: Dr Adam Gibson
Uses and application of treatment using ionising radiation including radiation
dosimetry; radiobiological basis of treatment; dose distribution and radiotherapy
treatment; radiation protection.
MPHY3891: Medical
Imaging with Non-Ionising Radiation [Term 2]
Module Organiser: Dr Karin Shmueli
Two major imaging methods are covered in this module, Ultrasound and Magnetic
Resonance Imaging (MRI). In Ultrasound, topics covered include the generation
and propagation of ultrasound beams, resolution limits, artifacts, Doppler
flow measurement and ultrasound system design and signal processing. In MRI,
the basic theory of NMR is given, followed by a discussion of the MR signal
characteristics in tissue, signal acquisition techniques and MRI instrumentation.
Subsequently methods of image formation and image processing techniques are
described.
Fourth Year
MPHYM000: Physics Project
MPHYM886: Optics
in Medicine [Term 1]
Module Organiser: Prof
Clare Elwell
Interaction of infrared, visible and ultraviolet radiation with biological
material; spectroscopy and other optical techniques as physiological sensors;
endoscopy; laser systems for diagnosis, therapy and surgery; visual optics
and optometry.
MPHYM012: Physiological
Monitoring [Term 2]
Module Organiser: Dr Martin Fry
The module provides an in depth understanding of the theory and practice
of transducers and monitoring techniques in physiology and medicine and covers
most of the commonly used methods in medical practice with the exception
of those derived from imaging and radionuclide methods. Topics include: blood
pressure sensing, gait analysis, temperature measurement, respiratory monitoring,
optical sensing methods in oximetry and blood flow, blood analysis.
Free option
Further information
For more information about the Natural Sciences degree programme, please see the Natural Sciences website.
If
you have questions about particular medical physics modules, please
contact the corresponding module organiser. For general queries
regarding the medical physics stream, please email the Natural Sciences Tutor Dr Adam Gibson.
