To ensure this course continues to be cutting-edge and enables you to be ready for the modern workplace, it is due to be reviewed by December 2024.
Our website will typically be updated within a month of the review confirming any enhancements, including:
module titles (and whether they are core or optional)
expected contact hours
assessment methods
staff teaching on the course
Entry requirements
The University of Hertfordshire is committed to welcoming students with a wide range of qualifications and levels of experience. The entry requirements listed on the course pages provide a guide to the minimum level of qualifications needed to study each course. However, we have a flexible approach to admissions and each application will be considered on an individual basis.
UCAS points
A Level
BTEC
Access Course Tariff
IB requirement
128-136
ABB-AAB - B in Maths, B in Physics
DDM-DDD - Applied Science AND A level Maths grade B
Diploma with 45 Level 3 credits of which 15 must be in maths at a minimum of Merit
120-128 points must include maths and physics at HL grade 4 or above
Additional requirements
GCSE: Grade 4/C in English Language and Mathematics
All students from non-majority English speaking countries require proof of English language proficiency, equivalent to an overall IELTS score of 6.0 with a minimum of 5.5 in each band.
DDM-DDD - Applied Science AND A level Maths grade B
None
Diploma with 45 Level 3 credits of which 15 must be in maths at a minimum of Merit
128-136 points must include maths and physics at HL grade 4 or above
Additional requirements
GCSE: Grade 4/C in English Language and Mathematics
All students from non-majority English speaking countries require proof of English language proficiency, equivalent to an overall IELTS score of 6.0 with a minimum of 5.5 in each band.
DDM-DDD - Applied Science AND A level Maths grade B
None
Diploma with 45 Level 3 credits of which 15 must be in maths at a minimum of Merit
128-136 points must include maths and physics at HL grade 4 or above
Additional requirements
GCSE: Grade 4/C in English Language and Mathematics
All students from non-majority English speaking countries require proof of English language proficiency, equivalent to an overall IELTS score of 6.0 with a minimum of 5.5 in each band.
The Department of Physics, Astronomy and Mathematics is in the process of seeking accreditation of this course by the Institute of Physics.
Why choose this course?
2nd in the East of England (after Cambridge) for Physics & Astronomy(2023 Complete University Guide)
Use one of the best equipped teaching observatories in the UK
Hands-on field trip to Goonhilly Earth Station in Cornwall
Combine your interests in astrophysics and spaceflight
You are fascinated by the science that underlies our current understanding of the universe, and you are excited by the exploration of space within our solar system using spacecraft. You want to develop your skills in physics, maths, computing and practical work and understand how modern technology is enabling us to probe further into the universe - using telescopes based on the Earth and in space - and travel to more distant worlds using robotic spacecraft. You are interested in the role that the space industry can play in saving and protecting our planet.
We offer a broad and exciting curriculum which covers topics from planetary science to space systems, cosmology to rocket science. Our hands-on approach to the application of the physical and space sciences will spark your imagination. You’ll become creative and be able to solve real-world problems based on research-informed knowledge.
You don’t want to choose between your two favourite subjects. By studying astrophysics with space science at Herts, you’ll have the best of both worlds.
Benefit from our links to the space industry
At the University of Hertfordshire, you’ll benefit from national and international links to the space industry. We have strong links to leading space industry experts, including: Goonhilly Earth Station (GES) in Cornwall, Airbus Defence and Space (in nearby Stevenage), the UK Space Agency and NASA, together with the rapidly growing number of Earth observation and satellite companies. You’ll even have the opportunity to undertake a week-long field trip to GES to gain hands-on experience with its deep space communication facilities, and training mission operations.
Herts and Hatfield have a proud history in space science and innovation. The pioneering Blue Streak rocket was built in Hatfield and the mathematics department has been involved in ground-breaking work on the optimisation of spacecraft trajectories. The University continues to build excellent industry links and forge progress in international space exploration and research.
You’ll benefit from access to one of the best astronomical teaching observatories in the UK – Bayfordbury Observatory. The Observatory, which hosts a suite of space science instrumentation, will enable you to observe and measure stars and planets, and track satellites as part of your own research and project work. Our team of expert researchers and academics will be with you every step of the way. With lots of opportunities to master practical skills and theory, you’ll step into your future career with confidence.
What's the course about?
Astrophysics is the study of the physical processes that shape the structure and evolution of our universe. This study takes place on many scales, from extrasolar planets to supermassive black holes – both areas currently under research at the University of Hertfordshire. Space Science is the application of physics and engineering to the space environment of the Earth, and to spacecraft systems and dynamics. The development of ingenious instrumentation which is able to push measurements to their physical limits is important to both astrophysics and space science.
Your main campus is College Lane
This is where the creative arts, science and health-related subjects are based. This means you’ll share the campus with future nurses, scientists, artists and more. You can use the common rooms to relax with friends, work out in the 24-hour gym or have a drink in our on-campus pub or cafes. We also have restaurants for you to eat in or grab something on the go. Our Learning Resources Centres are open 24/7, which means you can study whenever suits you best. Want to pop over to the other campus? You can take the free shuttle bus or walk there in just 15 minutes.
New School of Physics, Engineering and Computer Science building opening in 2024
Learn in our brand-new building, where you’ll experience a range of experiential learning zones. You will benefit from two new dedicated physics teaching labs.
The new building will also be home to the Centre for Climate Change Research and the Wolfson Centre for Biodetection and Instrumentation Research, which have both been created in response to the most pressing global challenges. You will also benefit from a Success and Skills Support Unit, which is aimed at helping you build your employability and academic skills. Plus, have access to industry mentors who will provide you with pastoral support, vocational guidance, and career progression opportunities.
The new building will also provide space to collaborate, with plenty of workshops, social and meeting spaces available. Even better, the building has been designed with the University’s net zero carbon target in mind, and forms part of our plan to replace or upgrade older sites that are energy inefficient.
What will I study?
Our course offers a unique blend of core physics and astrophysics alongside the specialised area of space science. While based in the Department of Physics, Astronomy and Mathematics, you’ll also benefit from opportunities to take modules from the Department of Engineering, including Space Systems and Rocket Propulsion and Performance, and Satellite Communications.
At Herts, we offer a range of teaching methods so you can reach your full potential. From small-group tutorials, to lectures, practical classes and guest speakers from industry, you’ll be inspired and supported every step of the way. You’ll also have access to Bayfordbury Observatory where you’ll carry out astronomical observations in a professional setting.
We offer a problem-based learning approach. Be inspired by our hands-on/practical approach to teaching. You’ll have the chance to work in teams to design a space science mission. You’ll then deliver your findings in a competitive tender presentation to justify your proposal.
Not only will you showcase your theoretical knowledge, but you’ll gain confidence as an expert problem-solver through creativity and logic. For example, a workbook that you create in the module Space Dynamics is a detailed record of your investigation of the orbital and spin dynamics of spacecraft. Although a form of assessment, many graduates have used the workbook during job interviews to highlight their skills and capabilities.
In your first year, you’ll develop a solid broad foundation in physics, astrophysics and scientific mathematics, alongside training in laboratory and observatory techniques. The emphasis is on closely supporting your studies through regular academic meetings with a personal tutor in small groups. The class sizes mean that you will quickly get to know your peers and work together, sometimes in study groups that you form yourselves. A valued feature of the course is the easy and informal access you have to staff teaching on the modules.
In your second year, you’ll begin start to specialise in more advanced areas of astrophysics and space science, including modules in Space Science and Systems and advanced core curriculum in electromagnetism and optical physics. Astrophysics modules focus on the planetary scale of real interest to space scientists - Physics of the Solar System and Extra-Solar Planets.
In your third year, you will study topics such as nuclear and particle physics and star formation. You’ll also undertake an in-depth investigative project. Throughout the project, you’ll be closely supervised and guided by one of our experienced researchers in the Centre for Astrophysics. Previous projects have included mapping the Orion Nebula with our telescopes at Bayfordbury Observatory, studying planetary systems with the Herschel Space Observatory, and modelling high energy jets from galactic nuclei. You'll study the performance and propulsion of rockets and study spacecraft dynamics in an innovative computer-based environment.
In your final year on the MPhys course, you’ll progress on to study more advanced areas in a range of astrophysics specialisms. You'll also meet current postgraduate students in the department in these classes and undertak an advanced module within the Department of Engineering and Computer Science on the space systems approach to mission planning. This year is good preparation for your next steps into postgraduate research.
Students establish or refine their knowledge and problem-solving skills in core areas of classical physics and astrophysics. A broad survey of the universe and the structure of matter is offered, showing how physics and mathematics are used as theoretical tools to interpret data, some of which is collected at telescopes. You will develop skills in research enquiry and problem solving, analysis and evaluation, team and organisational working, interpersonal and communication skills, scientific writing and information searching, and ethical awareness and application.
The module introduces the theories of special relativity and quantum mechanics, energy and radiation, wave particle duality, and applies these ideas to atomic, nuclear and molecular physics. The course content is delivered in the form of lectures, tutorial/problem sessions and laboratory classes. Students are expected to develop strong study skills such as note-taking and study planning, working independently as well as in groups, as well as skills in problem solving and research enquiry, analysis and evaluation, team and organisational working, and interpersonal skills.
The module consists of experimental investigations into various physical phenomena such as classical mechanics, thermodynamics, waves and optics, fluids, electromagnetism and atomic spectra. It also introduces the basic techniques of laboratory practice, including data recording, uncertainty estimation, data and uncertainty analysis, maintaining a log book and writing reports. The module develops skills in research enquiry and problem solving, analysis and evaluation, organisational working, interpersonal and communication skills, scientific writing and information searching.
This module gives you academic support in small groups studying taught material from across your Level 4 modules. Your tutor group meets every two weeks during teaching periods. In meetings your tutor will lead/guide discussions relating to tutorial assignments set by other modules, as well as in additional areas of study that you may suggest. Guidance and advice will show you how to start to think like a professional (astro-) physicist. You can also seek pastoral support from your tutor on any matters affecting your studies.
On entry to the degree students have a range of mathematical backgrounds and knowledge, and this module has been designed to standardise mathematical knowledge through the first semester of study. You will review core areas of A-level mathematics, which will be extended to enhance your knowledge. You will learn important and widely applicable mathematical techniques relating to hyperbolic functions, matrices, vectors, differential and integral calculus, and complex numbers. In this module you will develop your skills in mathematical problem solving, analysis and evaluation.
This module will extend the mathematical knowledge gained in the module 'Mathematical Methods'. It will explore a variety of mathematical methods that use calculus. You will learn important and widely applicable mathematical techniques relating to improper integrals, differential equations, partial differentiation, power series, and Fourier series. In this module you will develop your skills in mathematical problem solving, analysis and evaluation.
In this module you will learn how to use a programming language. You will solve exercises during practical classes and independent study time. You will see how to develop scientific and mathematical models and how they can be implemented in a computational environment. The module develops skills in problem solving, computer programming, analysis and evaluation, and interpersonal and communication skills
Electromagnetism is a cornerstone of our understanding of the physical world. We are literally held together by electromagnetic forces - one of the four fundamental forces in nature. In this module, we explore electromagnetism in theory and in practice. The fundamental laws are contained in a beautiful set of equations - Maxwell's equations, a.k.a. Faraday's law, Ampere's law etc. Physical pictures, particularly the idea of a physical field help to gain a real intuition for how the equations translate into observable physical behaviour.
The study of light has a storied history in physics, leading to the discovery that it is an electromagnetic wave and then the development of special relativity and quantum electrodynamics. Students will learn the classical topics of light wave propagation, interference and diffraction, geometric optics, polarisation and Fourier optics. These are illustrated with applications including lasers, the detection of gravitational waves and the discovery of new extra-solar planets. The student will be able to choose a topic in modern optics for investigation.
Thermodynamics is one of the most fascinating areas of physics, bridging the divide between quantum and classical mechanics. It deals with large numbers of particles and thus reveals new collective types of behaviour such as changes of phase. Thermodynamics applies to large and small systems, from a bacteria and the household refrigerator to black holes and the universe. It puts limits on their behaviour, most famously in the law of entropy increase.
This module is designed to give you academic support in small groups studying taught material from across your Level 5 modules. It also provides support and training for the Career Planning and Development module in the form of assistance with your personal skills audit, and help/guidance with putting together your CV. In addition, it will develop your skills in interpreting/understanding scientific journal papers (through some "journal club" sessions), and your appreciation of good practice in scientific writing.
With the advent of the space age "Planetary Science" (the physics of the solar system) is the only branch of astronomy in which up-close studies are possible, with lunar missions and interplanetary probes revolutionizing our understanding over the past 50 years. Learn about the diverse range of solar-system bodies and their dynamics, how planets form, their interiors and surfaces, planetary and inter-planetary magnetic effects.
In the past three decades extra-solar planets have moved from science fiction to science-fact, with ground- and space-based surveys revealing several thousand extra-solar worlds. Learn about the methods for extra-solar planet discovery, their interiors and atmospheres, the diversity of known systems and their formation. Study the physics of this hugely diverse population, understand how astronomers assess extra-solar habitability, and learn about future missions aiming to reveal the conditions in extra-solar planet atmospheres.
The use of dimensional analysis in systems, including an introduction to various non-dimensional measures of mechanical and thermal properties) Sound grounding in the physical principles underlying engineering design. Notional topics to include: Heat transfer and exchange; Introduction to flows and types of flow (pipes, nozzles, Knudsen, hypersonic etc.); Gyroscopic stability; Essentials of radio and laser communication; Imaging systems, image analysis, remote sensing; Simple stress analysisElectrostatic charging and the physics of electrical discharge.
In this module you will develop your skills in mathematical problem solving, and analysis and evaluation. You will learn how to integrate functions of two and three variables along plane and space curves and how to evaluate multiple integrals of such functions. You will learn about gradient, divergence and curl. You will be able to obtain the Fourier transform of a function and perform calculations involving analytic functions of a complex variable.
Programming is an important skill in the modern working world. Using a modern high-level language, the module will cover control structures like loops and logical statements, as well as how to build more complex programs by writing and linking separate functions and procedures. You will learn how to debug programs and produce program documentation, and apply your skills to a mathematical or physical problem and computationally analyse the results. The module develops skills in computer programming, interpersonal and communication skills, and conceptualisation and critical thinking.
Quantum mechanics is the most fundamental and most successful theory of the physical world. It has been essential to the development of many modern technologies (lasers, solid state and tunnelling devices, entanglement and encryption). This module develops the basic formalism of quantum mechanics. The formalism is used to understand the properties of bound states, spin states, identical particles and multi-particle structures. Recent developments and conceptual problems are also discussed. The module develops skills in research enquiry and problem solving, presentation skills, conceptualisation and critical thinking.
The module aims to develop relevant skills and understand the role of a graduate in the sphere of work. By the end of the module students should appreciate the challenges, rewards and diversity of career planning and development. In this module you will develop your skills in team and organisational working, interpersonal and communication skills, information searching, adaptation to context, personal evaluation and development.
Supervised work experience provides students with the opportunity to set their academic studies in a broader context, to gain practical experience in specific technical areas and to strengthen their communication and time-management skills. It greatly assists them in developing as independent learners, so that they are able to gain the maximum benefit from the learning opportunities provided at level 6 of the programme.
The Year Abroad will provide students with the opportunity to expand, develop and apply the knowledge and skills gained in the first two taught years of the degree within a different organisational and cultural environment in a partner academic institution. The host institution will appoint a Programme Co-ordinator who will oversee the student's programme during the Year Abroad and will liaise with the appointed UH Supervisor.
For the placement element the supervised work experience provides students with the opportunity to set their academic studies in a broader context, to gain practical experience in specific technical areas and to strengthen their communication and time management skills. The host company will appoint a Line Manager who will oversee the student during the placement and will liaise with the appointed UH supervisor.
The study abroad element will provide students with the opportunity to expand, develop and apply the knowledge and skills gained in the first two taught years of the degree within a different organisational and cultural environment in a partner academic institution. The host institution will appoint a Programme Co-ordinator who will oversee the students programme during the time abroad and will liaise with appointed UH supervisor.
Both opportunities will help develop students as independent learners, so that they are able to gain the maximum benefit from the learning opportunities provided at level 6 of the programme.
This module develops the student's knowledge of aerodynamic applications of CFD. It comprehensively reviews the governing equations of fluid flow and their area of application. The major numerical methods of solution are introduced, together with turbulence modelling. Meshing procedures are introduced, including physical measures of adequate meshing, solution adaptive meshing, multi-block and multi-grid methods.
This module develops the student's knowledge of aerodynamics and experience of using CFD. Students will develop their knowledge of the use of potential flow theory and its application to the panel method for aerodynamic prediction. Other topics covered will include lifting line and slender body theory together with hypersonic aerodynamics.
The CFD applications part of the module provides an overview of the governing flow equations and their range of application. Students will make extensive use of commercial codes to simulate airflows. Apart from applications to external flows, methods for multi-phase flows and flows with conjugate heat transfer will be reviewed. There is also an introduction to subroutines and user functions in commercial codes.
There are 7 major subsystems which make up a spacecraft. These are:- Structure, Propulsion, Thermal, Power, Control, Telecommand and Repeater. Besides all these there are the Systems aspects (Mass, Mission, Quality, EMC etc, Software etc - as listed below). Mechanical Structure design, overall configuration, appendage deployments math modelling, stress analysis, structure stiffness (35 Hz to meet launcher needs), sine and acoustic testing, interface loads, mechanisms Propulsion Apogee engine, orbit thrusters, piping, valves, tanks, fuel types, fuel metering (zero g).on orbit station keeping Thermal Exterior radiative surfaces, internal thermal control, heaters, heatpipes, thermocouples, thermistors Electrical Solar panels, solar array drive motors, power conditioning, battery control, power distribution internally, eclipse management, harness, circuit design, derating analysis, software (FPGA, ASIC, etc) Control Control laws, software, station keeping, (roll pitch yaw) gyros, momentum-reaction wheels. sensors (sun, earth, star), recovery modes Telecommand (& Telemetry) U plink and downlink signals, distribution inside spacecraft, internal data collection, Repeater (receiver and transmitter) Coverage areas & performance, uplink and downlink antennas, receive circuits, power amplifiers, up & down converters, phased arrays, cables, waveguides, switching networks System aspects Mass control (launch cost $10k per kg), mass distribution Mission (launch strategy, orbit, on station, station changes) All interfaces all 7 subsystems above plus launch vehicle Design Spacecraft configuration, layout, reliability, Worst Case Analysis, Parts Stress Analysis, Failure Mode Analysis Radiation analysis (all electrical circuits) Total dose, displacement damage, electrostatic discharge Repeater Electro-magnetic compatibility (EMC), PIM (passive inter modulation), Multipaction, Corona discharge, Quality
High-energy astrophysics is "the astrophysics of high-energy processes and its application in astrophysical contexts" (Longair). Such processes are typically associated with extreme objects, like black holes, neutron stars, or white dwarfs. A high mass can give rise to high energy processes, like for example in very massive galaxy clusters or near supermassive black holes, but also extreme situations, like collapse of very massive stars to produce a gamma ray burst, or the merger of black holes or neutron stars, which have also been observed to produce gravitational waves. This course will develop in students a deep understanding of the high-energy processes that are important in astrophysics, the key types of astrophysical situation in which they operate, and the methods by which their effects are detected from Earth. The module develops skills in research enquiry and problem solving, analysis and evaluation, communication skills, information searching, conceptualisation.
In undertaking an Astrophysics Research Project students will carry out a major piece of investigative and practical work at the interface with current research. Astrophysics research areas in the School include; star formation in the Milky Way, the disc and bulge of the Milky Way, extra-solar planets and brown dwarfs, planetary nebulae and white dwarfs, Active Galactic Nuclei physics and environment, the formation and evolution of galaxies, and the structure of galaxies. A successful project will become a key feature of a student's professional profile and CV, and is often a central talking point in graduate job interviews and/or postgraduate applications.
Galaxy formation and evolution is one of the most topical and active fields of current astronomical research. Although we now have a relatively complete cosmological model taking us from a fraction of a second after the big-bang to the epoch of last scattering, the details of how galaxies subsequently formed and evolved to become those that we see today are not yet fully understood. This module will cover current observational and theoretical developments in this field, using the known properties of local galaxies as a benchmark. In addition, the module will look towards the future with particular focus on what we might learn about the first galaxies formed after last scattering, i.e. during the epoch of re-ionization. The module develops skills in research enquiry and problem solving, analysis and evaluation, communication skills, and conceptualisation.
This module develops statistical concepts which are applied in modern physical and astrophysical research. The module will look into the different kinds of distributions and errors. Methods for hypothesis testing and data fitting will be investigated and applied to research data. Monte Carlo and Bootstrapping procedures will be used for error propagation. These statistical methods will be implemented in a procedural language such as Python. The module will cover the syntax and control structures such as loops and logical statements, and building complex programmes by writing and linking separate functions and procedures. In this module you will develop your skills in problem solving, analysis and evaluation, and computer programming.
The module applies the physical and mathematical principles to develop an understanding of the climate change. It explores the physical science of our climate system and the basic mechanisms that govern how the climate system responds to drivers of climate change. From a knowledge of the physical processes taking place, students gain understanding of the major climate processes that are important for understanding the future climate change.
Study abroad
An opportunity for an amazing experience, which will help make you stand out from the crowd. With more and more companies working internationally, experience of living in another country can make a great impression on future employers.
This course offers you the opportunity to enhance your study and CV with a sandwich year abroad. The University has partnerships with over 150 universities around the world, including the USA, Canada, Asia, Africa, Australia, South America and closer to home in Europe.
If you study abroad between your second and third year of study, you’ll pay no tuition fee to the partner university and no tuition fee to us either. We’ll ask you to make your decision in your second year, so there is plenty of time to think about it.
Please note Erasmus+ funding is only available until May 2023. For students starting their course in September 2022 and wishing to study abroad in 2023-24 or 2024-25, please refer to the Turing Scheme.
Work placement
Graduate with invaluable work experience alongside your degree and stand out from the crowd.
This course offers you the opportunity to enhance your study and CV with a work placement sandwich year. It’s a chance to explore career possibilities, make valuable contacts and gain sought after professional skills.
Our dedicated Careers and Employment team are here to help guide you through the process.
Previous students have worked at:
IBM
Microsoft
the Rutherford Appleton Labs
the Met Office and
the National Physical Laboratory.
If you take up a work placement between your second and third year of study, at the University of Hertfordshire you’ll pay no tuition fee for this year. We’ll ask you to make your decision in your second year, so there is plenty of time to think about it.
Many of our graduates go on to work or postgraduate study at their placement hosts.
What if I need support?
With one of the best student-staff ratios in the country we are able to put our focus on you as an individual and give you the support that you need to reach your full potential.
You’ll benefit from the support of a personal throughout your studies who will support your personal and academic journey. Support is provided through regular one-to-ones and small group discussions.
You can also take advantage of the Departments’ Mathematics Support Service which is available to all staff and students across the University.
The course has been developed alongside student proctors ensuring staff are able to help you throughout your studies on the things that matter most to you. From managing workload to helping advise on the latest research to explore, our staff will ensure you succeed and perform well.
Alumni Stories
Dr Samuel Nathan Richards
Meet Dr Samuel Nathan Richards, who has taken his degree out of this world. Samuel currently works for NASA as the Mission Director & Instrument Scientist for NASA/DLR mission: SOFIA in California.
Samuel currently works as the Mission Director & Instrument Scientist for the SOFIA mission, based in Palmdale, California at the Stratospheric Observatory for Infrared Astronomy. Nathan has worked toward this role since completing his degree and a PhD in Astrophysics at the University of Sydney, Australia.
He says, 'I would not be where I am without the opportunities that were available while studying at the University of Hertfordshire. From extracurricular projects, to connections with other world ranking universities. I'm thankful to the University for its guidance and support that kick-started my career.'
Samuel decided to study at the University after seeing a promo video in sixth-form that featured the Bayfordbury Observatory. He says, 'When I discovered how strong the University's Astronomy department was, I felt that this was an environment that I could thrive in.'
'The lecturers were world-class, active astronomers, so each class was dynamic to the ever-changing knowledge of their respective fields of research. Their willingness to accept keen students for extracurricular research projects gave me early first-hand experience of the career I was about to launch myself into. Their international connections opened a path for me to do a research year at the University of Sydney, where I would later return to complete a PhD!'
Just the beginning
Pursuing a career in astronomy is highly competitive but incredibly exciting. Opportunities in these industries are truly global and roles are very diverse. 'I didn't know I'd end up working at NASA, but I took all opportunities as they arose.' Samuel encourages new and current students to do the same. 'Find what you enjoy and do that, over money, status and fame. There are many routes to where I am now, my colleagues come from very different backgrounds: astronomy, electrical and mechanical engineering and computer science, and that is just within my role, let alone all the other roles under NASA's umbrella.'
'I'm still learning, developing and taking on new opportunities!'
Alumni Stories
Thomas Owen
Meet Thomas Owen who discovered his passion for analytics while at university. He is currently a Sales and Capacity Planner at Ocado.
Thomas initially decided to come to the University of Hertfordshire based on our excellent Physics facilities, including Bayfordbury Observatory. While visiting the campus at an Open Day he was impressed with the amount of support available and our ranking in league tables for Physics evidenced in the expertise of our lecturers.
Throughout his time at the University, Thomas felt fully supported. He says, ‘There was never a point where I felt I had to go it alone and help was always on hand if things got tough. Lecturers took the time to meet with me personally if I had questions and the 24/7 LRC had everything I'd need for self-study and exam practice.’
After graduating, he has realised that the challenges he faced throughout his degree have fully prepared him for his working life and future career.
‘My studies helped me prepare for working in busy, dynamic environments by challenging me all the time. Whether it was working on a big project, my dissertation, or preparing for my exams – my experiences encouraged me to take challenges head on.’
While he worked hard throughout his time at university, he is pleased that it paid off. He explains that handing in his final year dissertation and being awarded a first made it all worthwhile.
Future aspirations
Thomas initially did not think that he would be working in online grocery and retail, however, he has found the industry to be challenging, rewarding and fast-growing. He explains that he likes the variety of roles and ‘different areas of aspire to work in.’
What's next for my career?
This course will prepare you for an exciting career in the space industry. Due to increasing investment and technological advances, the industry, both in the UK and abroad, is set to expand exponentially. There are therefore a growing number of job opportunities for technologically driven and trained graduates with the capabilities to work within, and manage, projects to aid the peaceful exploration of space.
Graduates within the Department of Physics, Astronomy and Mathematics have gone onto careers across the space industry, including roles as space engineers, research scientists and science communicators working for facilities such as the Royal Greenwich Observatory or the European Space Agency.
The course can also lead to many career pathways where analytical skills are highly desired, including: finance, accounting, commerce, teaching and telecommunications.
If you want to expand your knowledge and specialise further, this course will prepare you for postgraduate education in space science or space technology.
£1155 per 15 credits for the 2024/2025 academic year
EU Students
Full time
£15500 for the 2024/2025 academic year
Part time
£1940 per 15 credits for the 2024/2025 academic year
International Students
Full time
£15500 for the 2024/2025 academic year
Part time
£1940 per 15 credits for the 2024/2025 academic year
*Tuition fees are charged annually. The fees quoted above are for the specified year(s) only. Fees may be higher in future years, for both new and continuing students. Please see the University’s
Fees and Finance Policy (and in particular the section headed “When tuition fees change”), for further information about when and by how much the University may increase its fees for future years.