Fitzwilliam College Summer School Programme

4001-699-686

Subjects


Biology
Philosophy
Physics
Engineering
Natural Sciences
Psychology and Neuroscience
Mathematics for Natural Sciences
Elements of Mathematical Economics
Chemistry
Business Economics
Mechanical and Electrical Engineering
Medicine

  About Fitzwilliam College Summer School 

Founded in 1209, the University of Cambridge is the fourth-oldest university in the world. Fitzwilliam College is one of the 31 constituent colleges of the University of Cambridge, with a rich history of inclusive education. Research and education across the 150 faculties and departments of the university cover a vast array of fields. Many of the subjects taught at Cambridge are ranked in the top 5 worldwide by the QS world university rankings by subject.

FitzEd is the summer school programme of Fitzwilliam College in the University of Cambridge for international students aged 14-18 years. Thinking of getting a flavour of undergraduate study at Cambridge whilst also enjoying new cultural experiences and fun social activities? If so, then this is the summer school for you! The FitzEd Summer School is a unique summer programme at Cambridge that is taught by current academics from the University of Cambridge or one of its constituent Colleges.

It's academic
Our programme reflects the traditional Cambridge supervisions at the core of our undergraduate courses. It will help you develop your academic skills through lectures and challenging small-group problem-solving sessions. No more than 15 participants will be enrolled in each course to ensure that you make the most out of your time with us. You will be offered a minimum of 40 hours of tuition across the 2-week programme delivered exclusively by current academics from the University of Cambridge and its Colleges. In addition to this you will be expected to spend several hours on problem-solving in preparation for your supervisions. You will also need to work a minimum of 10 hours on your individual research project leading to an academic essay and presentation. The best research projects will be displayed in our Summer School Journal on our website.
"Every discussion, every experiment, and every suggestion has left a deep mark on my academic and personal growth." FitzEd Participant, 2025

It’s enriching
Besides the academic component of the programme, you will have the opportunity to explore Cambridge and London, visit famous landmarks and museums in the cities and go punting on the River Cam. You will also get to taste of life as an undergraduate student at Cambridge: experience independence, living in College and dining at Formal Halls.
"Outstanding professors, rich learning experiences, wonderful college activities, and new international friendships" FitzEd Participant, 2025

It’s unforgettable
In the last 3 years, we have welcomed 600 students from over 20 countries. The shared experience that participants gain form the basis of cross-cultural friendships, creating a strong supportive environment.
The many social activities that you take part in will be fantastic opportunities to deepen your new friendships with like-minded people from around the world. Forming these new bonds with others from different cultural backgrounds creates a strong supportive environment and improves your ability to study and live in a multicultural environment such as Cambridge.
"I have become more confident, more curious and more determined." FitzEd Participant, 2025

In 2023, Fitzwilliam College and ASEEDER have entered a strategic partnership to open the FitzEd Summer and Winter School Programmes to outstanding students in China. Since 2023, more than 600 students participated in these programmes. In the summer of 2026, we will offer two summer school programmes, the first in the period of 12th-25th July, and the second between 26th July – 8th August. The first period will offer courses designed for students aged 14-15 as well as those aged 16-18. The schedule is fully packed with academic, cultural and social activities throughout your time with us.

  Videos 

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of our previous participants said that they would recommend FitzEd Summer School for others
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said that taking our courses strengthened their enjoyment and interest of the subject they studied
0
of them were more confident about their choice of subject for university than they were before attending the programme.

  Why choose us? 

Official

Official Summer School Programme of Fitzwilliam College, Cambridge. All course instructors are academics at Fitzwilliam College or one of the other colleges of the University of Cambridge.

Top Subjects
FitzEd Summer School provides 20+ courses for participants. According to the QS World University Rankings, Cambridge is ranked in the top 10 at university level worldwide for these subjects. Participants will engage in small-group classes with a maximum of 15 participants.
Enrichment Activities

Participants will take part in lectures and workshops aimed at developing numerous soft skills which are essential for academic progression. There will be sessions to cultivate the participants’ writing, presentation, communication and study skills. Besides the academically challenging workload participants will undertake, they will be encouraged to join in enriching extra-curricular activities such as playing sports, table tennis, board games or lawn games, take creative writing lessons, practise your art and design skills, play the piano, attend movie nights, and much more.

Research Project
You will write a 900-word essay and prepare a 10-minute presentation on your chosen research questions. You will get plenty of support to get started with your independent work on your project. You will be expected to spend a minimum of 10 hours of independent work on your project during the second week of the programme. You will present your research to your peers and course instructor on the last day of the programme, and receive detailed, constructive feedback from your course instructor to help you further your academic excellence
Live in Fitzwilliam College
The participants will be accommodated in en-suite rooms in Fitzwilliam College, Cambridge. Full-board catering will be provided (breakfast, lunch and dinner) every day, with an authentic Cambridge formal hall experience following both the opening and closing ceremonies.
International Class
FitzEd Summer School is open for participants from all around the world. They will meet participants from other countries and cultural backgrounds, improving their ability to study and live in a multicultural environment.

  Outcomes 

● Students who attend at least 90% of the classes, write their essay and give their presentation will receive a certificate of completion by Fitzwilliam College.
● Each student will write an academic research essay and presentation and receive detailed individual feedback from the academic course instructor.
● Top 2 best performing students will receive an award certificate.
● The authors of the best 2 essays will receive a top essay certificate.
● The top 2 essays from each course will be published in the FitzEd Summer School Journal and displayed on Fitzwilliam College's website.
Detail>>

Certificate of Completion

Award Certificate

2024 FITZWILLIAM SUMMER SCHOOL JOURNAL

This is an annual journal publishing the best essays written by the top-perorming students of the FitzEd Summer School which is the official summer programme of Fitzwilliam College in the University of Cambridge.

The journal covers eleven fields: Mathematics, Physics, Computer Science, Microbiology, Elements of Mathematical Economics, Engineering, Chemistry, Medicine, Palaeobiology, Philosophy, and Nuclear Engineering.

Read More >

  Courses on Offer  

Biology:
Microbiology and Pathogen Evolution
Philosophy of Science in Cambridge:
Then and now
Engineering: Sustainable Vehicles
Computer Science: Artificial Intelligence and Machine Learning
Psychology and Neuroscience, Option 1
Physics: Special Relativity and Quantum Mechanics
Mathematics for Natural Sciences, Option 1
Mathematics for the Natural Sciences, Option 2
Elements of Mathematical Economics
Chemistry

14-15 years old

Mathematics
Mechanical and Electrical Engineering
Natural Sciences (Chemistry and Physics)
Economic Environment of Business
Medicine and Biological Natural Sciences

16-18 years old

Engineering: Sustainable Vehicles
Mathematics for Natural Sciences
Critical and Creative Thinking in the Age of AI
Biology: Microbiology and Pathogen Evolution
Chemistry
Future-Focused Robotics: Bridging Mechanical and Electrical Systems
Physics: Astronomy and Astrophysics
Elements of Mathematical Economics

Future-Focused Robotics: Bridging Mechanical and Electrical Systems
Physics: Astronomy and Astrophysics
Elements of Mathematical Economics
Biology: Microbiology & Microbial Genetics
Psychology and Neuroscience
Medicine
Business Economics
Mathematics

Programme 1:12th-25th July, 2026

 Instructor and Syllabus 

14-15 years old

Mathematics


Prof Anthony Ashton

Fellow, Tutor, College Professor, Director of Studies in Mathematics at Homerton College, University of Cambridge
Lecturer, Department of Applied Mathematics & Theoretical Physics, University of Cambridge

Anthony Ashton has been lecturing courses in the Mathematical Tripos since 2011. His teaching responsibilities fall across a broad range of subjects, from courses on Differential Equations and Probability in Part IA all the way to Analysis of PDEs in Part III. He is director of studies in mathematics at Homerton, where he oversees the progress of around 40 students each year. In 2017 he was awarded the Pilkington Prize, a prestigious prize awarded by the University of Cambridge to academics who have made an outstanding contribution to teaching and outreach within the University.

His research interests focus mainly on partial differential equations (PDE). More specifically, he works on spectral approaches to elliptic boundary value problems, Lie group methods, new approaches to regularity problems in linear PDE and certain aspects of mathematical physics. He is also interested in several problems in analytic number theory relating to the Hurwitz zeta function.


■ Course Content

The primary purpose of this course will be to teach students how to count. We will build up knowledge and understanding of elementary combinatorics and see how those ideas can be used to solve problems of probability.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Counting & Permutations

Combinations Pigeon hole

principle

Supervision Day 1

Algebra of sets

and Inclusion-

Exclusion

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Probability I

Probability II Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

*List of prerequisite knowledge:
None.

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Mechanical and Electrical Engineering


Dr Miles Stopher

Associate Professor, Fellow and Director of Studies in Engineering, Homerton College
Director of Admissions, Department of Engineering, Cambridge
Bye-Fellow in Engineering, Fitzwilliam College

Dr Miles Stopher is an Associate Professor in Engineering and the Director of Admissions in the Department of Engineering. He is a Bye-Fellow of Fitzwilliam College, having previously served as Senior Tutor. He has supervised and directed studies in Engineering for over 10 years, across a number of colleges at the University, including his alma mater, Jesus College. Miles teaches Part IA and Part IB Mechanical engineering, Structural engineering, electrical engineering and materials science to engineering undergraduates at Cambridge. He lectures Nuclear Materials for Part III materials scientists, An Introduction to Materials Science for Engineers, and Nuclear Materials for Engineers on the MPhil in Nuclear Energy. He has also lectured on nuclear safety, thermohydraulics and global energy policy. His research covers a broad range of topics but focuses primarily on nuclear reactor design, with particular interest in the design of nanostructured materials for applications in extreme environments. Prior to his arrival at Cambridge, he worked on the design of the Royal Navy’s Dreadnought-class nuclear-powered ballistic missile submarines.


■ Course Content

Engineering has many branches, but the oldest and broadest is mechanical engineering. Mechanical engineers look at the design, analysis, and manufacturing of mechanical systems and machines that keep our world moving forward. Electrical engineering was born in the 18th century, known then as "the youngest of the sciences". This intensive course offers a valuable insight into what it is like to study mechanical or electrical engineering at university, covering the most prominent specialisms within the fields. Students will study the foundational concepts on which such specialisms are built and apply them to real-world problems, acquiring the skills and knowledge necessary to gain a head start in studying engineering at university.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Mechanical Engineering:

Aircraft design

Mechanical Engineering:

Engine design

Mechanical Engineering:

Power plant design

Supervision Day 1:

Mechanics problems

Electrical Engineering:

Electronics

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Electrical Engineering:

Renewable Energy

Electrical and Mechanical Engineering:

Robotics

Guided Presentation

and Essay Writing

Supervision Day 2:

Electronics problems

Final

Presentations

*List of prerequisite knowledge:
The emphasis during the course will be on the physical understanding of the principles involved. Only elementary mathematical methods will be used. The key is the engineering and not the mathematics behind it. As such, I only ask students have an appetite for learning and an inquisitiveness for engineering. Nonetheless, I’ve provided a few fun questions below that hopefully you enjoy tackling and can challenge your friends with.

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Natural Sciences (Chemistry and Physics)


Dr Anke Ardern-Arentsen

Research Associate, Institute of Astronomy
Bye Fellow at Fitzwilliam College in the University of Cambridge

Anke Ardern-Arentsen is a researcher at the Institute of Astronomy, University of Cambridge, where she works on large astronomical datasets to enable studies of millions of stars and galaxies. Her research focuses on using ancient stars to reveal the history of our home galaxy, the Milky Way. At the University of Cambridge, she has taught supervisions for third-year Astronomy students, co-led an astronomy module for the Data Intensive Science MPhil and supervised research projects.


Dr Itai Massad

Herchel Smith Postdoctoral Fellow, Department of Chemistry
Research Fellow at Fitzwilliam College

Itai Massad is a researcher in the Department of Chemistry, where his research in the field of supramolecular chemistry explores the design and preparation of supramolecular cages – well-defined three-dimensional assemblies that can trap small molecules within their structures. Itai has extensive experience in teaching organic chemistry from introductory to graduate level.




■ Course Content

In this programme, you will get to explore two fields within the physical natural sciences, chemistry and physics. The course will focus on two specific topics within these fields, according to the expertise of the course instructors. In the organic chemistry module, we will learn to understand and predict the structure of organic (and inorganic) molecules and explore modern analytical techniques for determining molecular structure. In the physics/astronomy module, we will revise and study the relevance of various physics topics for the fascinating field of astronomy, explore the history of the Universe, learn about galaxies, stars and exoplanets, and cover different techniques for studying the Universe. The modules will be a mixture of lectures and practical elements.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Molecular

structures

Isomerism and

resonance

NMR spectroscopy Supervision Day:

Chemistr

Physics for

astronomy

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Galaxies

Stars and

exoplanets

Guided Presentation

and Essay Writing

Practical Astronomy

Day, Institute of

Astronomy visit

Final

Presentations

* List of prerequisite knowledge:
Some knowledge of basic physics and chemistry would be useful, as well as a familiarity with using (simple) equations.
No computer programming experience is necessary for the astronomy practical.
* Test your knowledge of the prerequisites! Can you answer the questions below?
1.Using Newton’s second law, determine the force required to accelerate an average adult human being at 2 m/s2.
2.What are the three-dimensional shapes of H2O and CO2? Why do they differ?

Recommended reading list (optional):
Any book on physics and chemistry for high school.

* Fitzwilliam College reserves the right to changes to the course content or the course instructor.

 

Medicine and Biological Natural Sciences


Dr Robert Abayasekara

Lecturer in Human Reproduction and Director of Pre-Clinical studies for Medicine
Admissions Tutor in Sciences
Fellow at Fitzwilliam College in the University of Cambridge

Robert Abayasekara is a highly experienced medical and veterinary educator who has taught Physiology at the Universities of Oxford, London (Royal Free Hospital School of Medicine, King’s College London (KCL), Royal Veterinary College (RVC) and Cambridge. He has been the Director of Studies for Pre-clinical Medicine at Fitzwilliam College, Cambridge since 2004. At Fitzwilliam, Robert conducts small group teaching sessions (supervisions) in homeostasis, human reproduction and veterinary reproductive biology for students reading medicine, veterinary medicine and biological natural sciences. Robert’s primary research interest is the biology of the mammalian corpus luteum.


Dr Laura Frost

Lead Veterinary Surgeon at Woodgreen, The Animal Charity
Bye-fellow in Veterinary Medicine at Fitzwilliam College
Director of Studies in Veterinary Medicine at Wolfson/Lucy Cavendish Colleges

Laura Frost qualified as a vet from Cambridge vet school in 2009 and initially worked in general practice while studying for a surgical certificate. She now works as a surgeon at Woodgreen, a large rehoming charity dealing with dogs, cats, rabbits, ferrets and other small mammals. She lectures as part of the preclinical vet course teaching surgery to final year students and recent graduate vets. At Fitzwilliam College she conducts small group supervisions in veterinary anatomy & physiology, veterinary reproductive anatomy and comparative vertebrate anatomy. She has a keen interest in education, This course offers pre-university students an insight into comparative biology with a particular emphasis on medical and veterinary sciences. You will have the opportunity to improve your understanding of important topics in physiology and anatomy in various species including the human. The course will include small group teaching from experts, as well as sessions to guide key writing and presenting skills, and the opportunity to present your own project work, especially in surgical learning in early career vets. In her spare time, she rehabilitates wild hedgehogs ready for release back into the wild.




■ Course Content

This course offers pre-university students an insight into comparative biology with a particular emphasis on medical and veterinary sciences. You will have the opportunity to improve your understanding of important topics in physiology and anatomy in various species including the human. The course will include small group teaching from experts, as well as sessions to guide key writing and presenting skills, and the opportunity to present your own project work.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Intro to Physiology

Part 1 (hormones)

 

Introduction to

Physiology Part 2

(kidney)

Intro to Physiology

Part 3

 

Aldosterone

Interactive

practical involving

measuring blood

pressure of individuals

 

Topical Discussion

Supervision Day

Comparative anatomy

 

Heart, Respiratory

systems, dentition &

placenta

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

From hormones to

hibernation

 

Hormones in other species,

hibernation, adaptation

to altitude & other extreme

environments

How things heal

 

Blood transfusions, skin

healing, bone healing, surgical

principles

Guided

Presentation and

Essay Writing

Practical Day:

A surgeon for the

day

 

Suture practical

& fracture repair

practical

Final Presentations

*List of prerequisite knowledge:
At minimum familiarity with GCSE-level biology.
*Test your knowledge of the prerequisites! Can you answer the questions below?
1. What type of signals does the body use to control the endless array of functions that it needs to carry out in order to maintain life.
2. Can you describe in general terms the anatomical route that blood takes from the left ventricle, around the circulation and back to the left ventricle? What causes it to flow, and what determines the direction it takes?
3. What substances does a cell need to survive? How can these substances be classified? Are there any required substances which do not enter the cell?
*Recommended reading list (optional):
Have a look at some of the physiology videos on www.hippomedics.com, Prof Matthew Mason’s teaching channel.
Those on cardiovascular physiology and endocrinology will be most useful.
Medicine and Biological Natural Sciences

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Economic Environment of Business


Mo Tanweer

Academic Associate at Pembroke College, University of Cambridge

Mo Tanweer studied Economics at Cambridge University and, after a career in investment banking, was Head of Economics & Politics at Eton College. He is now an Academic Associate at Pembroke College (University of Cambridge) where his particular areas of focus are The Politics of the International Economy, and Banking & Finance, as well as teaching a course on AI: Friend or Foe? He assists with teaching Macroeconomics and International Business on the MBA, Executive MBA, and Global EMBA at the Judge Business School at the University of Cambridge, as well as contributing to Executive Education courses on global megatrends and their implications. He is also a Teaching Associate for Macroeconomics for the MPhil and Management Studies Tripos. He also lectures Macroeconomics in Business on the MBA programme at the Rotterdam School of Management (Erasmus University). Beyond academia, he provides consultancy advice to both small and large corporates on how rapidly shifting economic trends and external shocks such as AI may impact their business models. His past research has focussed on the rise of China and its challenges, whilst his current area of research is global technology shocks and how they affect geopolitical relationships and the wider global economy, from labour markets to policy making.


■ Course Content

The Economic Environment of Business module covers the economic foundations needed to understand firms’ decision making. One of the prerequisites of doing well in business is to understand the environment in which you operate. In this context, there are many forces that act on business. Some may be slow and predictable. Others are sudden and very often unexpected. At the same time, while these forces play out, governments are also likely to react with a variety of policy changes. By the end of the module students will understand how decision making in businesses is affected by three core drivers: internal firm factors, external industry factors, and global macro factors. To begin with this module will explore the importance of economics and how it relates to our everyday lives. From there, students will develop familiarity with microeconomic models to better understand concepts such as costs, demand, profit, competition, pricing, and market entry strategy and to acquire the more subtle ability to apply them to real and simulated situations with a focus on learning how to think strategically. The module will discuss the environment of business from both a micro market perspective whilst complementing it with understanding how firms deal with the complexities of the international economy. Through a mixture of building economic frameworks as well as applied empirical analysis, we will explore how these complexities can be analysed. The individual market and the broader national economy are the environments of business. Hence the dual challenge for people in business is not only to position themselves to either take advantage of favourable economic conditions or take defensive action from negative economic shocks but also to anticipate the likely policy responses of rivals and of governments. This module will offer the tools to offer informed insights on these drivers.

Date 13th July

Monday

 

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Introduction to

Economics and

the Environment

of Business

Demand, Supply

and Market

Equilibrium

The analysis of

competitive and

imperfect markets

Supervision Day 1

Game theory

and competitive

strategy

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Consultancy

Case Studies:

Firms’ strategic

decision making

Macroeconomic

environment of

business

Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

*List of prerequisite knowledge:
No prior knowledge of the subject is required.
*Test your knowledge of the prerequisites! Can you answer the questions below?
Why diamonds cost more than water, when water is necessary to survive?
Why do brown eggs cost more (and sell less) than white eggs?
Why do airlines charge much more for tickets purchased at the last minute, while West End theatres follow the opposite practice?
Is it always beneficial to act first and charge a price for your product when you are competing with other firms in a market?
*Optional Reading:
Levitt, S.D. and Dubner, S.J., 2005. Freakonomics: A rogue economist explores the hidden side of everything. London: Penguin Books.
Frank, R.H., 2007. The Economic Naturalist: Why economics explains almost everything. London: Virgin Books.
Harford, T., 2006. The Undercover Economist: Exposing why the rich are rich, the poor are poor—and why you can never buy a decent used car! London: Little, Brown.
*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Mathematics for Natural Sciences, option 1


Dr Stephen Sawiak

Fellow, Tutor, College Lecturer, Assistant Director of Studies in Mathematics for Natural Sciences , Fitzwilliam College, University of Cambridge, MRI Physicist, Department of Physiology, Development and Neuroscience, University of Cambridge

Dr Sawiak is an experienced lecturer, supervisor and assistant director of studies responsible for organising the mathematics supervisions for students taking physical Natural Sciences, Computer Science and Chemical Engineering courses in Fitzwilliam College. He has interviewed Natural Sciences candidates for over 15 years and supervised students in mathematics for 18 years. Day to day he conducts research in magnetic resonance imaging acquisition and analysis methods with applications to neuroscience.


■ Course Content

This exciting and challenging mathematics course gives a rapid tour from the fundamentals of calculus (differentiation and integration) up to first-year University level with advanced applications including power series expansion of functions, Fourier series and the extension of integration into multiple dimensions and non-Cartesian coordinate systems. The pace of this course will be fast and most suitable for those with already some familiarity with the basic concepts of calculus who are keen for a preview of University level mathematics made accessible to those of a bright high school level.

Date 14th July

Monday

15th July

Tuesday

16th July

Wednesday

17th July

Thursday

18th July

Friday

 

Sums, series convergence

Calculus I Differentiation Taylor Series Supervision Day 1 Calculus IIIntegration
Date 19th July

Saturday

21th July

Monday

22th July

Tuesday

23th July

Wednesday

24th July

Thursday

 

Fourier Series

Multiple integration Guided Presentation and Essay Writing Supervision Day 2 Final Presentations

* List of prerequisite knowledge:
Basic algebra, trigonometry (functions sin, cos, tan; use of radians)
* Test your knowledge of the prerequisites! Can you answer the questions below?
1. What does the gradient of a function mean?
2. If x(a+b/2)=6, what is b in terms of a and x?
3. Sketch the graphs of sin x and cos x, in radians, from -π<x<π
* Fitzwilliam College reserves the right to changes to the course content or the course instructor.

 

Mathematics for the Natural Sciences, Option 2


Serena Povia

College Teaching Associate at St John’s College, Supervisor at Magdalene and Jesus, Involved in Cambridge Admissions for the past 7 years in several colleges STEMSMART Supervisor

Mrs. Serena Povia specialises in teaching Mathematics and Physics at the University level. She has been a supervisor in physics and mathematics for the Natural Sciences course for about ten years. Current teaching commitment are the Physics and Mathematics courses for the first year and the second year. Sereba previously taught third year courses too.


■ Course Content

Programme 1: 13th-26th July, 2025 (40-hour course, 2 office hours)
Programme 2: 27th July - 9th August, 2025 (40-hour course, 2 office hours)

Date Monday Tuesday Wednesday Thursday Friday
 

Differential Equations 1

Integration 1 Complex Numbers Supervision Day 1 Differential Equations 2
Date Monday Tuesday Wednesday Thursday Friday
 

Introduction to multivariable calculus

Differential Equations 3 Guided Presentation and Essay Writing Supervision Day 2 Final Presentations

* List of prerequisite knowledge:
Derivatives (polynomials, trigonometric, exponentials, ln), product and chain rules for derivatives, integrals (polynomials, trigonometric, exponentials, ln), integrations by substitution, at least some knowledge of complex numbers.
* Note
This course will be very closely targeted at students between lower and upper sixth, those who have not seen and worked on the following pre-requisites will find the course very hard. Those who have already completed pre-university studies might find at least half of the course too easy. A question sheet will be pre-circulated to participants two weeks before the course to ensure that the prerequisites are met.
* Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Elements of Mathematical Economics

Dr Vasileios Kotsidis

College Assistant Professor at Gonville and Caius College

Vasileios Kotsidis uses tools from traditional and evolutionary game theory to analyse social interactions that (potentially) involve strategic motives. His research focuses on the scope and limitations of models based on methodological individualism in interpreting individual behaviour (human or otherwise) as it is manifested in social settings. It spans along three main directions: how individuals think, what they are motivated by, and what the researcher can infer. He obtained his PhD in Economics at the University of Nottingham. His doctorate explored some theoretical aspects of social (strategic) behaviour and investigated its empirical manifestations. He also enjoys practicing karate, studying on the philosophy of mathematics, and reading fantasy literature.


■ Course Content

Programme 1: 13th-26th July, 2025 (40-hour course, 2 office hours)
Programme 2: 27th July - 9th August, 2025 (40-hour course, 2 office hours)

This course explores some fundamental notions and results that are of special importance of economic
analysis. It begins by considering elements of set theory, analysis, optimisation calculus, and statistics. It then applies them to construct a series of progressively more elaborate logical statements which form the basis of formal choice under risk. The result is a robust and analytically tractable approach to reasoning about uncertainty.

Date Monday Tuesday Wednesday Thursday Friday
 

Elements of Mathematics I

Elements of Mathematics II Elements of Statistics I Supervision Day 1 Elements of Statistics II
Date Monday Tuesday Wednesday Thursday Friday
 

Rational Choice Theory I: Uncertainty

Rational Choice Theory II: Information Guided Presentation and Essay Writing Supervision Day 2 Final Presentations

* List of prerequisite knowledge:
1. Understanding of limiting reasoning
2. Elementary trigonometry
3. Intuitive understanding of sets
4. Venn diagrams
5. Intuitive understanding of probability
* Test your knowledge of the prerequisites! Can you answer the questions below?
1. What does it meant to state that some function, f, is continuous?
2. What does it mean to state that some function, f, is differentiable?
3. Consider two sets, A and B. Suppose that A is a subset of B. What are then the union and the intersection of A and B?
* Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Chemistry


Dr Andrea Chlebikova

Senior Project Chemist at Isaac Physics, Department of Physics, University of Cambridge, College Teaching Associate at Sidney Sussex College, Special Supervisor at Newnham College, Course lecturer, Yusuf Hamied Department of Chemistry, University of Cambridge

Andrea Chlebikova became involved in undergraduate teaching at Cambridge in 2015 and has been supervising first-year chemistry to students of Natural Sciences as well as more specialised physical chemistry courses ever since. She is also involved with undergraduate admissions in multiple colleges. Andrea is in charge of designing and teaching the chemistry content on the STEM SMART programme run by the University of Cambridge, preparing students from disadvantaged backgrounds for studying STEM subjects at university.


Dr Peter Bolgar

Bye-Fellow at Fitzwilliam College, University of Cambridge, Director of Studies and College Lecturer at Magdalene College, University of Cambridge, Lecturer (Teaching) at University College London

Peter Bolgar is a teaching Bye-Fellow in organic and bio-organic chemistry at Fitzwilliam College. He completed his undergraduate degree in Natural Sciences at Cambridge, followed by a PhD in supramolecular chemistry at the same place. Peter now specialises in teaching chemistry at the university level, lecturing a range of courses from the first, second and third year of the undergraduate curriculum. He is involved with undergraduate admissions at Magdalene College. Peter is a member of the UK Chemistry Olympiad Committee, and he mentors students for the International Chemistry Olympiad both nationally and internationally




■ Course Content

Programme 1: 13th-26th July, 2025 (40-hour course, 2 office hours)
Programme 2: 27th July - 9th August, 2025 (40-hour course, 2 office hours)

This course lets participants explore advanced topics in physical and organic chemistry, each of which are fundamental to your studies of a chemistry degree. The course is built on concepts that you will be familiar with from school curriculum. We will quickly extend your knowledge in the fields of atomic and molecular orbital theory, thermodynamics, kinetics and organic reactivity to give you a significant head start in your university education. You will be able to practice your experimental skills as well through a practical class in physical chemistry. We are looking forward exploring the highlights of first year undergraduatelevel Chemistry curriculum with you!

Date Monday Tuesday Wednesday Thursday Friday
 

Physical Chemistry: Thermodynamics

Dr Chlebikova

Physical Chemistry: Kinetics

Dr Chlebikova

Theoretical Chemistry: Quantum Mechanics

Dr Chlebikova

Supervision Day

Dr Chlebikova

Organic Chemistry: Isomerism, Conjugation, Acids & Bases

Dr Bolgar

Date Monday Tuesday Wednesday Thursday Friday
 

Organic Chemistry: Introduction to Organic Reaction Mechanisms

Dr Bolgar

Organic Chemistry: Introduction to Reaction Types

Dr Bolgar

Guided Presentation and Essay Writing

Dr Chlebikova

Laboratory Day

Dr Chlebikova

Final Presentations

Dr Chlebikova

* List of prerequisite knowledge:
Confidence with algebraic manipulation of expressions, including logarithms
A knowledge of differentiation will be helpful but is not necessary
Familiarity with chemistry of secondary-school level (e.g. representations of molecules and chemical bonding, recognise terminology such as “enthalpy”, some experience handling glassware)
* Test your knowledge of the prerequisites! Can you answer the questions below?
1. Calculate the volume of 0.1 molar sulfuric acid necessary to neutralise 25.6 grams of calcium hydroxide.
2. Rearrange
3. Draw a structural formula for propanoic acid and but-1-enol.
* Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Future-Focused Robotics: Bridging Mechanical and Electrical Systems


Dr Rachel Thorley

Fellow in Engineering, Churchill College

Rachel read Engineering at Newnham College before completing a PhD in Geoengineering for Carbon Sequestration at the University of Sheffield. She is a Fellow in Engineering at Churchill College, where she supervises undergraduate engineers in Mechanics, as well as teaching Structures, Design, and Engineering Communication. Rachel has supervised a range of industrial placements focused on developing control systems for environmental monitoring, off-grid eco homes, and low-cost wind turbines for sustainable energy. Prior to joining Churchill, she lectured in Engineering at the University of Sheffield, specializing in the practical aspects of both Electrical and Mechanical Engineering. Her research interests lie in innovation and sustainability,translating interdisciplinary concepts into real-world solutions. She is also an active member of a local makerspace, bringing expertise in rapid prototyping and digital manufacturing.


■ Course Content

Robotics is rapidly transforming industries—from healthcare and manufacturing to transportation and entertainment—making now the perfect time to build the knowledge and hands-on experience this field demands. This module provides a comprehensive introduction to the electrical, mechanical, and control aspects of robotics, focusing on the design and prototyping of robotic systems. You will learn how to integrate electronics, mechanical structures, and control algorithms, exploring what is involved in the construction and use of robots from a multidisciplinary perspective. Through a blend of lectures, hands-on lab sessions, and group design projects, you will discover how to select and assemble hardware components, program control systems, and refine prototypes based on performance testing. By the end of the module, you will be able to design, build, and troubleshoot simple robotic devices, laying a solid foundation for further engineering study and real-world applications. In addition, the module incorporates an essential thread on communication skills. You will gain experience in clearly and accurately presenting ideas in written, verbal, and graphical forms, ensuring you can engage effectively with diverse audiences—an invaluable skill in both academic and professional engineering environments.

Date 14th July

Monday

15th July

Tuesday

16th July

Wednesday

17th July

Thursday

18th July

Friday

  Applications of robotics Mechanical Engineering Applied Mechanical Design Supervision Day 1: Mechanics problems Electrical Engineering: Circuits
Date 19th July

Saturday

21st July

Monday

22nd July

Tuesday

23rd July

Wednesday

24th July

Thursday

  Electrical Engineering: Sensors Electrical Engineering: Microcontrollers & Integration Guided Presentation and Essay Writing Makerspace Visit, Rapid Prototyping & Guest Lecture Final

Presentations

• * List of prerequisite knowledge:
The emphasis during the course will be on the physical understanding of the principles involved. Only elementary mathematical methods will be used. The key is the engineering and not the mathematics behind it. As such, I expect students to have a basic awareness of circuits and their components, alongside a basic understanding of mechanics (see below).
• *Test your knowledge of the prerequisites! Can you answer the questions below?
1. Name the components (A, B, C, D and E) in the circuit below:
2. A train travels from town A to town B ,as shown in the scale diagram below.
a) The distance the train travels between A and B is not the same as the displacement of the train. What is the difference between distance and displacement?
b) Use the figure below to determine the displacement of the train in travelling from A to B.
c)There are places on the journey where the train accelerates without changing speed. Explain how this can happen.

16-18 years old

Engineering: Sustainable Vehicles


Dr Andrea Giusti

Bye-Fellow, Fitzwilliam College, University of Cambridge
Associate Professor in Thermofluids, Department of Mechanical Engineering, Imperial College London

Andrea studied Mechanical and Energy Engineering in Florence (Italy). He obtained a PhD in 2014 at the University of Florence, working on a project for the development of clean engines for airplanes. Following his PhD, Andrea joined the Engineering Department at the University of Cambridge as a Rolls-Royce Research Associate. He was appointed Lecturer by Imperial College in October 2018. In addition to the academic role at Imperial College, Andrea supervises undergraduate students at Fitzwilliam College. He is also Editor-inChief of the International Journal of Spray and Combustion Dynamics.


■ Course Content

The module we propose focuses on the design of new vehicles with sustainability at the centre of all engineering choices. The student will learn the fundamentals of vehicle dynamics, aerodynamic forces, electrification and new vehicle concepts. Theoretical lectures are paired with practical sessions which will guide the student towards a conceptual design of the vehicle of the future.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Engineering and

Innovation

Sustainability and life cycle

assessment

Vehicle Dynamics Supervision Day 1

Aerodynamic forces

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Fuels and

Emissions

Electrification of

transportation

Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

* List of prerequisite knowledge:
Fundamental concepts of mechanics (Newton’s second law, friction force, velocity, acceleration along a straight line); the concept of energy and power. Chemical reactions (reading reactants and products; balancing the reaction).
*Test your knowledge of the prerequisites! Can you answer the questions below?
1. Consider a block sliding on a table with speed U=10 m/s. The kinematic friction coefficient between the block and the table is μ= 0.1. The block is pushed against the table with a normal force equal to 10 N. What is the force parallel to the table that must be applied to the block to keep it moving at constant speed? How much power is needed to move the block?
2. A ball of mass 1 kg is launched vertically from the ground with speed 20 m/s. Assuming that gravity is the only force acting on the ball, what is the maximum height reached by the ball?
3. Methane, CH4, reacts with oxygen, O2. Find the minimum mass of oxygen per unit mass of methane to completely convert carbon into CO2 and hydrogen into H2O.
*Recommended reading list (optional):
Any book on physics and chemistry for high school.
*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Mathematics for Natural Sciences


Dr Stephen Sawiak

Assistant Research Professor, Department of Physiology, Development and Neuroscience, University of Cambridge
Fellow, Tutor, College Lecturer, Director of Studies in Natural Sciences at Fitzwilliam College, University of Cambridge

Dr Sawiak is an experienced lecturer, supervisor and assistant director of studies responsible for organising the mathematics supervisions for students taking physical Natural Sciences, Computer Science and Chemical Engineering courses in Fitzwilliam College. He has interviewed Natural Sciences candidates for over 15 years and supervised students in mathematics for 18 years. Day to day he conducts research in magnetic resonance imaging acquisition and analysis methods with applications to neuroscience.


■ Course Content

This exciting and challenging mathematics course gives a rapid tour from the fundamentals of calculus (differentiation and integration) up to first-year University level with advanced applications including power series expansion of functions, Fourier series and the extension of integration into multiple dimensions and non-Cartesian coordinate systems. The pace of this course will be fast and most suitable for those with already some familiarity with the basic concepts of calculus who are keen for a preview of University level mathematics made accessible to those of a bright high school level.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Sums, series

convergence

Calculus I

Differentiation

Taylor Series Supervision Day 1

Calculus II

Integration

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Fourier Series

Multiple

integration

Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

*List of prerequisite knowledge:
Basic algebra, trigonometry (functions sin, cos, tan; use of radians)

*Test your knowledge of the prerequisites! Can you answer the questions below?
1. What does the gradient of a function mean?
2. If x(a+b/2)=6, what is b in terms of a and x?
3. Sketch the graphs of sin x and cos x, in radians, from -π<x<π

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Critical and Creative Thinking in the Age of AI


Dr Alex Carter

Associate Professor of Philosophy and Interdisciplinary Studies, University of Cambridge
College Lecturer in Interdisciplinary Studies, Fitzwilliam College

Alex Carter teaches Philosophy and Creativity Theory at the University of Cambridge, Professional and Continuing Education. At Fitzwilliam College, Alex supervises philosophy students and provides study skills support to all college members. Alex’s research interests are diverse but place an emphasis on skills development; including critical thinking and creative practice. Alex’s PhD thesis explored some of the surprising aspects of Wittgenstein’s views concerning freedom and fatalism. Alex is currently researching the relationship between humour and creative practice via the concept of ’serious play’.


■ Course Content

Current debates about our future, and about the future of education in particular, are dominated by questions of how human intelligence can and will be transformed by artificial intelligence (AI). Many express the need for humans to focus on what makes humans special, i.e. what we can do that AI cannot. Skills like critical thinking, ideation (idea-creation) and adaptability are emphasised as the essential skills, not just for tomorrow, but today. In this course we will develop these skills by examining precisely why they are so important. That is, by considering what it means to be creative we will develop our critical and creative thinking. No prior understanding of the topics covered is required. This course is for anyone, but especially those who feel that they could be more critical or more creative.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

The skills of the future - how to get ahead

What is

creativity?

Why AI cannot

create like a human

Supervision Day 1

Introduction to critical thinking:

breaking things down

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Using critical thinking:

constructing an

argument

Design thinking and

other systems for

creative practice

Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

* List of prerequisite knowledge:
Students will be welcome, even encouraged, to use their existing knowledge in a range of subjects, e.g. physics, mathematics, law, in discussing the above topics. The skills we seek to develop are skills that we all possess and that we can all improve.
If you are unsure about your suitability, you could review the below questions. The more important question is: do you find answering the questions interesting. It is less important that you get the right answer.
* Test your knowledge of the prerequisites! Can you answer the questions below?
1. How many squares can you identify in the below diagram?
2. Three people walk into an ice cream shop. The person behind the counter asks “Would all of you like an ice cream?” The first customer looks at the other two and says, “I don’t know”. The second looks at the other two and says, “I don’t know”. The third customer looks at the other two and says, “Yes”. Is the third customer correct? Yes or no. (Hint: there is a correct answer).
3. Must an artist know in advance what they will create in order to create art?
* Recommended reading list (optional):
Butterworth, J. and Thwaites, G., 2013. Thinking skills: Critical thinking and problem solving. Cambridge University Press.
Fisher, A., 2011. Critical thinking: An introduction. Cambridge University Press.
Pope, R., 2005. Creativity: Theory, history, practice. Routledge
* Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Biology: Microbiology and Pathogen Evolution


Dr Marta Matuszewska

Research Associate, Department of Medicine, University of Cambridge and Wellcome Sanger Institute, Wellcome Trust Genome Campus
Dr Marta Matuszewska, currently a Research Associate at the University of Cambridge, is an accomplished evolutionary microbiologist specialising in bacterial host adaptation. Beyond her research, Marta actively contributes to education at the University by leading practical classes in mathematical biology and cell biology. Previously she has supervised undergraduate students in mathematical biology, nurturing the next generation of scientists.


Dr Christopher Ruis

Research Associate, Department of Medicine, University of Cambridge and Consultant, World Health Organization emerging zoonotic diseases

Christopher Ruis, currently a Research Associate at the University of Cambridge, is an evolutionary microbiologist specialising in understanding pathogen transmission. Chris led the identification of SARS-CoV-2 lineages globally during the COVID-19 pandemic, naming Delta, Omicron and their descendant sublineages, and led the genomic response to the mpox virus public health emergency of international concern. Chris has further developed the methodology and software to apply mutational signatures to pathogens, and applied this to identify novel transmission routes for emerging bacteria, highlight virulence of emerging SARS-CoV-2 lineages and demonstrate the dangers of widespread mutagenic antiviral treatment. Chris has extensive experience with supervision and mentoring of students at all education levels.




■ Course Content

This course provides an in-depth exploration of the genetic and evolutionary dynamics that drive pathogen adaptation and resistance, focusing onStaphylococcus aureus and other significant bacteria. Through lectures on molecular epidemiology, bacterial genomics, and phylogenetic analysis, students will gain foundational knowledge in understanding pathogen evolution. With a blend of theoretical concepts and hands-on activities, including guest lectures and group projects, participants will be equipped to analyse genetic
data and explore real-world implications in public health and disease management.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

Molecular

Epidemiology

DNA Structure, Causes and

consequences of mutations

Micro-organisms

Classification

Supervision Day 1

Microbes and

Disease

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

Bacterial

Genomics

Phylogenetics

and Phylogenetic Inference

Guided Presentation

and Essay Writing

Supervision Day 2 and

Guest Lecture:

SARS-CoV-2 Pandemic Response

Final Presentations

*List of prerequisite knowledge:
A broad familiarity with the items on the list above will greatly enhance your understanding and enjoyment of the classes and good preparation by all students will contribute significantly to the success of the course.
*Test your knowledge of the prerequisites! Can you answer the questions below?
1. What is DNA, and what is its primary role in living organisms?
2. What is one common disease caused by bacteria?
3. What do we call medicines that help fight bacterial infections?
*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Chemistry

Prof Christopher Hunter FRS

Herchel Smith Professor of Organic Chemistry, Yusuf Hamied Department of Chemistry, University of Cambridge, Fellow at Emmanual College, University of Cambridge Prof Chris Hunter did his undergraduate degree in Natural Sciences at Churchill College in the University of Cambridge matriculating in 1983. He completed his PhD at the same place under the supervision of  Prof Jeremy Sanders. Later he was appointed to a lectureship in Bioorganic Chemistry at the University of Otago in New Zealand, followed by a lectureship at the University of Sheffield where he was promoted to Professor of Chemistry in 1997. Chris returned to the University of Cambridge as the Herchel Smith Professor of Organic Chemistry in 2014. Chris has received numerous awards for his research over the year, and he has been elected a Fellow of the Royal Society (FRS) in 2008. He is also  an Honorary Member of the Royal Irish Academy. Chris is the author of the paper titled ‘The Nature of π-π Interactions’, which is one of the most cited papers of all times published in the Journal of the American Chemical Society.

Dr Peter Bolgar

Bye-Fellow at Fitzwilliam College in the University of Cambridge, Director of Studies and College Lecturer at Magdalene College, University of Cambridge

Dr Peter Bolgar is a teaching Bye-Fellow in organic and bio-organic chemistry at Fitzwilliam College, and he is also the Director of the FitzEd Summer School Programme. He completed his undergraduate degree in Natural Sciences at Cambridge, followed by a PhD in supramolecular chemistry at the same place. His research focused on the synthesis and characterisation of sequence polymers that are able to form sequenceselective duplexes, similar to nucleic acids. Peter now specialises in teaching chemistry at the university level, lecturing a range of courses from the first, second and third year of the undergraduate curriculum. Peter is a member of the UK Chemistry Olympiad Working Group, and he mentors students for the International Chemistry Olympiad both nationally and internationally.

Dr Andrea Chlebikova

Senior Project Chemist at Isaac Physics, Department of Physics, University of Cambridge Course Lecturer, Yusuf Hamied Department of Chemistry, University of Cambridge Dr Andrea Chlebikova came to Cambridge for her undergraduate studies in Natural Sciences, specialising in chemistry. She completed her PhD in atmospheric chemistry, focusing on methods of predicting reaction rate constants based on molecular structure. She has been supervising first-year chemistry to students of Natural Sciences as well as more specialised physical chemistry courses since 2015. She lectures third year undergraduates in physical chemistry in the Yusuf Hamied Department of Chemistry. She is involved with undergraduate admissions in multiple colleges. Andrea is in charge of designing and teaching the chemistry content on the STEM SMART programme run by the University of Cambridge, preparing students from disadvantaged backgrounds for studying STEM subjects at university.

■ Course Content

This course lets participants explore advanced topics in physical and organic chemistry, each of which are fundamental to your studies of a chemistry degree. The course is built on concepts that you will be familiar with from school curriculum. We will quickly extend your knowledge in the fields of atomic and molecular orbital theory, thermodynamics, kinetics and organic reactivity to give you a significant head start in your university education. You will be able to practice your experimental skills as well through a practical class in physical chemistry. We are looking forward exploring the highlights of first year undergraduate-level Chemistry curriculum with you!
Date 13th July Monday 14th July Tuesday 15th July Wednesday 16th July Thursday 17th July Friday

Physical Chemistry:

Thermodynamics

Isomerism in Organic Chemistry Physical Chemistry: Kinetics Supervision Day

Introduction to Organic

Reactivity and

Organic Reaction

Mechanisms

Date 18th July Saturday 20th July Monday 21st July Tuesday 22nd July Wednesday 23rd July Thursday
 

Acids & Bases and

Organic Reaction Types

Non-Covalent Chemistry Guided Presentation and Essay Writing Laboratory Day

Final

Presentations

*List of prerequisite knowledge: Confidence with algebraic manipulation of expressions, including logarithms A knowledge of differentiation will be helpful but is not necessary Familiarity with chemistry of secondary-school level (e.g. representations of molecules and chemical bonding, recognise terminology such as “enthalpy”, some experience handling glassware) *Test your knowledge of the prerequisites! Can you answer the questions below? 1.Calculate the volume of 0.1 molar sulfuric acid necessary to neutralise 25.6 grams of calcium hydroxide. 2.Rearrange k= 3.Draw a structural formula for propanoic acid and but-1-enol. *Recommended reading list (optional): Foundations of Physical Chemistry: No. 40 (Oxford Chemistry Primers) by Charles P. Lawrence, Alison Rodger and Richard Compton Foundations of Physical Chemistry: Worked Examples No. 68 (Oxford Chemistry Primers) by Nathan Lawrence, Jay Wadhawan and Richard Compton *Fitzwilliam College reserves the right to changes to the course content or the course instructor.
Future-Focused Robotics: Bridging Mechanical and Electrical Systems


Dr Rachel Thorley

Fellow in Engineering, Churchill College

Rachel read Engineering at Newnham College before completing a PhD in Geoengineering for Carbon Sequestration at the University of Sheffield. She is a Fellow in Engineering at Churchill College, where she supervises undergraduate engineers in Mechanics, as well as teaching Structures, Design, and Engineering Communication. Rachel has supervised a range of industrial placements focused on developing control systems for environmental monitoring, off-grid eco homes, and low-cost wind turbines for sustainable energy. Prior to joining Churchill, she lectured in Engineering at the University of Sheffield, specializing in the practical aspects of both Electrical and Mechanical Engineering. Her research interests lie in innovation and sustainability, translating interdisciplinary concepts into real-world solutions. She is also an active member of a local makerspace, bringing expertise in rapid prototyping and digital manufacturing.


■ Course Content

Robotics is rapidly transforming industries—from healthcare and manufacturing to transportation and entertainment—making now the perfect time to build the knowledge and hands-on experience this field demands. This module provides a comprehensive introduction to the electrical, mechanical, and control aspects of robotics, focusing on the design and prototyping of robotic systems. You will learn how to integrate electronics, mechanical structures, and control algorithms, exploring what is involved in the construction and use of robots from a multidisciplinary perspective.

Through a blend of lectures, hands-on lab sessions, and group design projects, you will discover how to select and assemble hardware components, program control systems, and refine prototypes based on performance testing. By the end of the module, you will be able to design, build, and troubleshoot simple robotic devices, laying a solid foundation for further engineering study and real-world applications. In addition, the module incorporates an essential thread on communication skills. You will gain experience in clearly and accurately presenting ideas in written, verbal, and graphical forms, ensuring you can engage effectively with diverse audiences—an invaluable skill in both academic and professional engineering environments.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Applications of robotics.

Engineering fundamentals:

careers & communication

Mechanical Engineering

Fundamentals.

Build and race a car

Electrical Engineering:

Circuits & Microcontrollers

Supervision Day 1:

Mechanics problems

Robot build:

Integrating mechanical

and electrical

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Robot build:

Control theory and sensors

Computer Aided Design (CAD).

Structural engineering

team challenge

Guided Presentation

and Essay Writing

Makerspace Visit,

Rapid Prototyping &

Guest Lecture

Final

Presentations

*List of prerequisite knowledge:
The emphasis during the course will be on the physical understanding of the principles involved. Only elementary mathematical methods will be used. The key is the engineering and not the mathematics behind it. As such, I expect students to have a basic awareness of circuits and their components, alongside a basic understanding of mechanics (see below).

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Physics: Astronomy and Astrophysics


Dr David Homan

Research Associate at the Institute for Astronomy, University of Cambridge

I work at the Cambridge Institute of Astronomy on large new telescope surveys that are designed to take measurements of millions of stars and galaxies. My research has focused on black holes, specifically the very large black holes that exist at the centres of galaxies. I study the extreme radiation emitted when these black holes draw in surrounding gas, dust, and stars. I obtained my PhD at the University of Edinburgh and afterward worked at the Leibniz Institute for Astrophysics in Potsdam, before coming to Cambridge. Over the years, I have taught various undergraduate courses including lecturing and tutoring, covering a wide range of topics in Mathematics and Physics.


■ Course Content

Astronomy aims to understand the Universe we live in through the application of the laws of physics. Newtonian mechanics and gravitation provide an excellent description of, for example, the motion of planets in our solar system. However, to understand the wide range of phenomena that we observe in our night’s sky we must also move beyond Newtonian physics and draw from thermodynamics, quantum mechanics, and Einstein’s relativity, among other fields of modern physics. The course will commence with the classical basics, deriving an accurate description of the motion of planets around a star, or indeed of any orbiting body in a gravitational field. We will continue by studying the way stars are formed and powered, touching on topics such as nuclear fusion. This will also provide a good opportunity to explore the key role that observations play in astronomy, by discussing the way we can analyse the spectrum of the light coming from stars. The course will include hands-on experience with the analysis of astronomical data. We will also explore some of the most extreme objects in our Universe, such as neutron stars and black holes, which achieve extremes of gravity and density that are impossible to mimic on Earth. The course concludes by considering one of the current limits of our knowledge: the presence of an unknown invisible component of our Universe that likely makes up most of all material, dark matter.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Measuring the

Universe

Orbital Motion Powering a Star Supervision Day

A Star’s Life

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

White Dwarfs

and Black Holes

Invisible Gravity Essay Writing Day Practical Day Final

Presentations

*List of prerequisite knowledge:
Classical mechanics:
• Newton’s laws of motion
• Concepts of acceleration, force, momentum, work
Mathematics:
• Trigonometry and geometry: familiarity with radians
• a basic understanding of derivatives and integration are required.
Light and waves:
• Relationship between wavelength and frequency
*Test your knowledge of the prerequisites! Can you answer the questions below?
1. A star in our galaxy explodes in a supernova today. If it is at a distance of 50 lightyears, how old will you be when you can see this from Earth?
2. A spaceship is falling into a black hole. Assume the acceleration on the ship is constant, at 100 m/s2, and the starting velocity of the ship is zero. The speed of light 300,000 km/s. How long does it take for the spaceship to reach 1% of the speed of light?
3. The speed of a satellite moving in a circular orbit around the Earth is given by v2=GMR where G is Newton’s gravitational constant, M is the mass of the Earth, and R is the distance from the satellite to the centre of the Earth. How high above the Earth’s surface is the satellite, if it is moving at 11,000 km/h? [Note: you are of course allowed to look up the values for G, M, and the radius of the Earth]

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Elements of Mathematical Economics


Dr Vasileios Kotsidis

College Assistant Professor at Gonville and Caius College, University of Cambridge

Vasileios Kotsidis uses tools from traditional and evolutionary game theory to analyse social interactions that (potentially) involve strategic motives. His research focuses on the scope and limitations of models based on methodological individualism in interpreting individual behaviour (human or otherwise) as it is manifested in social settings. It spans along three main directions: how individuals think, what they are motivated by, and what the researcher can infer. He obtained his PhD in Economics at the University of Nottingham. His doctorate explored some theoretical aspects of social (strategic) behaviour and investigated its empirical manifestations. He also enjoys practicing karate, studying on the philosophy of mathematics, and reading fantasy literature.


■ Course Content

This course explores some fundamental notions and results that are of special importance of economic analysis. It begins by considering elements of set theory, analysis, optimisation calculus, and statistics. It then applies them to construct a series of progressively more elaborate logical statements which form the basis of formal choice under risk. The result is a robust and analytically tractable approach to reasoning about uncertainty.

Date 13th July

Monday

14th July

Tuesday

15th July

Wednesday

16th July

Thursday

17th July

Friday

 

Elements of

Mathematics I

Elements of

Mathematics II

Elements of

Statistics I

Supervision Day 1

Elements of

Statistics II

Date 18th July

Saturday

20th July

Monday

21st July

Tuesday

22nd July

Wednesday

23rd July

Thursday

 

Rational Choice

Theory I:

Uncertainty

Rational Choice

Theory II:

Information

 

Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

*List of prerequisite knowledge:
1. Understanding of limiting reasoning
2. Elementary trigonometry
3. Intuitive understanding of sets
4. Venn diagrams
5. Intuitive understanding of probability
*Test your knowledge of the prerequisites! Can you answer the questions below?
1. What does it meant to state that some function, f, is continuous?
2. What does it mean to state that some function, f, is differentiable?
3. Consider two sets, A and B. Suppose that A is a subset of B. What are then the union and the intersection of A and B?
*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Programme 2:26th July-8th August, 2026

 Instructor and Syllabus 

Future-Focused Robotics: Bridging Mechanical and Electrical Systems


Dr Rachel Thorley

Fellow in Engineering, Churchill College

Rachel read Engineering at Newnham College before completing a PhD in Geoengineering for Carbon Sequestration at the University of Sheffield. She is a Fellow in Engineering at Churchill College, where she supervises undergraduate engineers in Mechanics, as well as teaching Structures, Design, and Engineering Communication. Rachel has supervised a range of industrial placements focused on developing control systems for environmental monitoring, off-grid eco homes, and low-cost wind turbines for sustainable energy. Prior to joining Churchill, she lectured in Engineering at the University of Sheffield, specializing in the practical aspects of both Electrical and Mechanical Engineering. Her research interests lie in innovation and sustainability, translating interdisciplinary concepts into real-world solutions. She is also an active member of a local makerspace, bringing expertise in rapid prototyping and digital manufacturing.


■ Course Content

Robotics is rapidly transforming industries—from healthcare and manufacturing to transportation and entertainment—making now the perfect time to build the knowledge and hands-on experience this field demands. This module provides a comprehensive introduction to the electrical, mechanical, and control aspects of robotics, focusing on the design and prototyping of robotic systems. You will learn how to integrate electronics, mechanical structures, and control algorithms, exploring what is involved in the construction and use of robots from a multidisciplinary perspective.

Through a blend of lectures, hands-on lab sessions, and group design projects, you will discover how to select and assemble hardware components, program control systems, and refine prototypes based on performance testing. By the end of the module, you will be able to design, build, and troubleshoot simple robotic devices, laying a solid foundation for further engineering study and real-world applications. In addition, the module incorporates an essential thread on communication skills. You will gain experience in clearly and accurately presenting ideas in written, verbal, and graphical forms, ensuring you can engage effectively with diverse audiences—an invaluable skill in both academic and professional engineering environments.
*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Date 27th July

Monday

28th July

Tuesday

29th July

Wednesday

30th July

Thursday

31st July

Friday

 

Applications of robotics.

Engineering fundamentals:

careers & communication

Mechanical Engineering

Fundamentals.

Build and race a car

Electrical Engineering:

Circuits & Microcontrollers

Supervision Day 1:

Mechanics problems

Robot build:

Integrating mechanical

and electrical

Date 3rd Aug

Monday

4th Aug

Tuesday

5th Aug

Wednesday

6th Aug

Thursday

7th Aug

Friday

 

Robot build:

Control theory and sensors

Computer Aided Design (CAD).

Structural engineering

team challenge

Guided Presentation

and Essay Writing

Makerspace Visit,

Rapid Prototyping &

Guest Lecture

Final

Presentations

*List of prerequisite knowledge:
The emphasis during the course will be on the physical understanding of the principles involved. Only elementary mathematical methods will be used. The key is the engineering and not the mathematics behind it. As such, I expect students to have a basic awareness of circuits and their components, alongside a basic understanding of mechanics (see below).

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Physics: Astronomy and Astro physics


Dr David Homan

Research Associate at the Institute for Astronomy, University of Cambridge

I work at the Cambridge Institute of Astronomy on large new telescope surveys that are designed to take measurements of millions of stars and galaxies. My research has focused on black holes, specifically the very large black holes that exist at the centres of galaxies. I study the extreme radiation emitted when these black holes draw in surrounding gas, dust, and stars. I obtained my PhD at the University of Edinburgh and afterward worked at the Leibniz Institute for Astrophysics in Potsdam, before coming to Cambridge. Over the years, I have taught various undergraduate courses including lecturing and tutoring, covering a wide range of topics in Mathematics and Physics.


■ Course Content

Astronomy aims to understand the Universe we live in through the application of the laws of physics. Newtonian mechanics and gravitation provide an excellent description of, for example, the motion of planets in our solar system. However, to understand the wide range of phenomena that we observe in our night’s sky we must also move beyond Newtonian physics and draw from thermodynamics, quantum mechanics, and Einstein’s relativity, among other fields of modern physics. The course will commence with the classical basics, deriving an accurate description of the motion of planets around a star, or indeed of any orbiting body in a gravitational field. We will continue by studying the way stars are formed and powered, touching on topics such as nuclear fusion. This will also provide a good opportunity to explore the key role that observations play in astronomy, by discussing the way we can analyse the spectrum of the light coming from stars. The course will include hands-on experience with the analysis of astronomical data. We will also explore some of the most extreme objects in our Universe, such as neutron stars and black holes, which achieve extremes of gravity and density that are impossible to mimic on Earth. The course concludes by considering one of the current limits of our knowledge: the presence of an unknown invisible component of our Universe that likely makes up most of all material, dark matter.

Date 27th July

Monday

28th July

Tuesday

29th July

Wednesday

30th July

Thursday

31st July

Friday

 

Measuring the

Universe

Orbital Motion Powering a Star Supervision Day

A Star’s Life

Date 3rd Aug

Monday

4th Aug

Tuesday

5th Aug

Wednesday

6th Aug

Thursday

7th Aug

Friday

 

White Dwarfs

and Black Holes

Invisible Gravity Essay Writing Day Practical Day Final

Presentations

*List of prerequisite knowledge:
Classical mechanics:
• Newton’s laws of motion
• Concepts of acceleration, force, momentum, work
Mathematics:
• Trigonometry and geometry: familiarity with radians
• a basic understanding of derivatives and integration are required.
Light and waves:
• Relationship between wavelength and frequency
*Test your knowledge of the prerequisites! Can you answer the questions below?
1. A star in our galaxy explodes in a supernova today. If it is at a distance of 50 lightyears, how old will you be when you can see this from Earth?
2. A spaceship is falling into a black hole. Assume the acceleration on the ship is constant, at 100 m/s2, and the starting velocity of the ship is zero. The speed of light 300,000 km/s. How long does it take for the spaceship to reach 1% of the speed of light?
3. The speed of a satellite moving in a circular orbit around the Earth is given by v2=GMR where G is Newton’s gravitational constant, M is the mass of the Earth, and R is the distance from the satellite to the centre of the Earth. How high above the Earth’s surface is the satellite, if it is moving at 11,000 km/h? [Note: you are of course allowed to look up the values for G, M, and the radius of the Earth]

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Elements of Mathematical Economics


Dr Vasileios Kotsidis

College Assistant Professor at Gonville and Caius College, University of Cambridge

Vasileios Kotsidis uses tools from traditional and evolutionary game theory to analyse social interactions that (potentially) involve strategic motives. His research focuses on the scope and limitations of models based on methodological individualism in interpreting individual behaviour (human or otherwise) as it is manifested in social settings. It spans along three main directions: how individuals think, what they are motivated by, and what the researcher can infer. He obtained his PhD in Economics at the University of Nottingham. His doctorate explored some theoretical aspects of social (strategic) behaviour and investigated its empirical manifestations. He also enjoys practicing karate, studying on the philosophy of mathematics, and reading fantasy literature.


■ Course Content

This course explores some fundamental notions and results that are of special importance of economic analysis. It begins by considering elements of set theory, analysis, optimisation calculus, and statistics. It then applies them to construct a series of progressively more elaborate logical statements which form the basis of formal choice under risk. The result is a robust and analytically tractable approach to reasoning about uncertainty.

Date 27th July

Monday

28th July

Tuesday

29th July

Wednesday

30th July

Thursday

31st July

Friday

 

Elements of

Mathematics I

Elements of

Mathematics II

Elements of

Statistics I

Supervision Day 1

Elements of

Statistics II

Date 3rd Aug

Monday

4th Aug

Tuesday

5th Aug

Wednesday

6th Aug

Thursday

7th Aug

Friday

 

Rational Choice

Theory I:

Uncertainty

Rational Choice

Theory II:

Information

 

Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

*List of prerequisite knowledge:
1. Understanding of limiting reasoning
2. Elementary trigonometry
3. Intuitive understanding of sets
4. Venn diagrams
5. Intuitive understanding of probability
*Test your knowledge of the prerequisites! Can you answer the questions below?
1. What does it meant to state that some function, f, is continuous?
2. What does it mean to state that some function, f, is differentiable?
3. Consider two sets, A and B. Suppose that A is a subset of B. What are then the union and the intersection of A and B?
*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Biology: Microbiology & Microbial Genetics


Dr Ashraf Zarkan

Research Fellow and Group Leader, Department of Genetics, University of Cambridge
Bye-Fellow, Fitzwilliam College, University of Cambridge

Dr Ash Zarkan is a microbiologist with a long-standing interest in infectious diseases and microbial genetics. Ash is an expert on antimicrobial resistance (AMR), and his research is focused on tackling the rise of AMR, especially in the human pathogen Escherichia coli (E. coli). His clinical focus is on urinary tract infections (UTIs) where E. coli is the major pathogen affecting 150 million people per year worldwide. He is an active member of the Microbiology Society, and he serves as an academic reviewer for a number of prestigious microbiology journals and grant funding bodies. Ash has lectured on several summer programmes in Cambridge on topics ranging from infectious diseases, immunity, vaccination, and antimicrobial resistance. He is an excellent and very engaging speaker. His interactive teaching style brings the excitement and experience of his research to his audience. Ash is very passionate about tackling the rapid rise of AMR and hopes to convey his passion to those who attend his courses.


■ Course Content

Microbes are the dominant life-form on the planet; they have been around longer than anything else, and they are more numerous than anything else. In fact, it is no understatement to say that we are guests in a microbial world. In this course, we'll explore the microbial world and look at how our preconceptions are changing as a result of new discoveries. We'll see how microbes have a thriving social life, and how this is tied in with the propensity of some species to cause disease and the rising problems of antimicrobial resistance. Your Course Lecturer, Dr Ash Zarkan, hopes that his enthusiasm for the subject will be.... "infectious"!

Date 27th July

Monday

28th July

Tuesday

29th July

Wednesday

30th July

Thursday

31st July

Friday

 

Microbiology &

Pathogens

Transmission,

Prevention, and

the Immune System

and Practical Session

Microbial Genetics &

Vaccine Development

Supervision Day 1

and

Practical Session

Antimicrobial

Therapies &

Antimicrobial

Resistance

Date 3rd Aug

Monday

4th Aug

Tuesday

5th Aug

Wednesday

6th Aug

Thursday

7th Aug

Friday

 

Biofilms and

Persisters

Pathogens

Overview and

Practical Session

Guided Presentation

and Essay Writing

Supervision Day 2

and

Practical Session

Final Presentations

*List of prerequisite knowledge:
There is no required prerequisite knowledge for this course. A broad familiarity with the items on the list above will greatly enhance your understanding and enjoyment of the classes and good preparation by all students will contribute significantly to the success of the course.

*Test your knowledge of the prerequisites! Can you answer the questions below?
1. What properties make a given species of bacteria ‘pathogenic’?
2. Do bacteria communicate with one another? If so, how do they do this?
3. How do antibiotics work? Is there such a thing as ‘the perfect antibiotic’?

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Psychology and Neuroscience


Dr Aude Rauscent

Visiting Research Fellow, Department of Psychology
Bye-Fellow at Homerton College, Fitzwilliam College and Hughes Hall
Director of Studies for Psychological and Behavioural Sciences and Natural Sciences

Dr Aude Rauscent is a Visiting Research Fellow in the Department of Physiology, Development and Neuroscience at the University of Cambridge and a Director of Studies in Psychological and Behavioural Sciences and Natural Sciences across several Cambridge colleges. Aude obtained her PhD in Neuroscience and Neuropharmacology from the University of Bordeaux, where she developed an innovative experimental model to explore how the central nervous system adapts to environmental and morphological constraints, thereby maintaining appropriate behavioural responses. She later joined Professor David Belin’s team at the French Institute of Health and Medical Research, investigating the neural and psychological roots of vulnerability to compulsive disorders.Now based in Cambridge, Aude’s research in the Cambridge Laboratory for Research on Impulsive and Compulsive Disorders (CLIC) focuses on understanding why some individuals are more prone than others to develop addiction and compulsive behaviours.


Dr Alexandra Krugliak

Research Associate at MRC Cognition and Brain Sciences Unit, University of Cambridge
Supervisor, Trinity College, University of Cambridge

Dr Alexandra Krugliak studied Psychology and Cognitive Neuroscience at The University of Maastricht (The Netherlands), before obtaining a PhD from the University of Birmingham (United Kingdom). Currently, Alexandra is a Research Associate at the MRC Cognition and Brain Sciences Unit at the University of Cambridge. Her main research interest is how the human brain represents the world around us based on perception, memory and learning, and how these processes change during healthy and pathological ageing. She combines neuro-imaging techniques such as Electroencephalography (EEG), Magnetoencephalography (MEG), and functional Magnetic Resonance Imaging (fMRI) with cutting-edge computational approaches to study neural representations of visual and auditory perception both in healthy participants and in patients with Alzheimer’s disease.



■ Course Content

Have you ever wondered how the brain gives rise to thoughts, emotions, actions, and motivation? This course offers an exciting introduction to the fundamental concepts of Psychology and Cognitive Neuroscience. Through interactive lectures, you’ll uncover how this extraordinary organ, made up of about 86 billion neurons, nearly as many as the stars in the Milky Way, controls perception, movement, and behaviour. You’ll also get hands-on insight into the advanced methods researchers use to study the mind and brain and develop essential academic skills: how to read scientific papers effectively, design and interpret experiments, conduct literature searches, introduce and justify a hypothesis, and build a strong, logical research narrative.

Date 27th July

Monday

28th July

Tuesday

29th July

Wednesday

30th July

Thursday

31st July

Friday

 

Introduction

to the

fundamentals of

psychology and

neuroscience

The modular

and integrative

functional

architecture of

the brain

Towards an

understanding of the

individual vulnerability

to develop psychiatric

disorders

Supervision Day 1

Cognitive

Psychology

Date 3rd Aug

Monday

4th Aug

Tuesday

5th Aug

Wednesday

6th Aug

Thursday

7th Aug

Friday

 

Cognitive

Neuroscience

Visual

Perception

Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

*List of prerequisite knowledge:
There is no prerequisite knowledge for this course. Strong analytical skills and a keen interest in Psychological and Behavioural Sciences will be particularly helpful. The course will suit students interested in Cognitive, Neuroimaging, Neuropsycho-pharmacology, and Neurobiology.

*Test your knowledge of the prerequisites! Can you answer the questions below?
1. One brain area, one cognitive function? Comment.
2. How do the structures in the brain communicate?
3. Can you imagine tests to assess cognitive functions?

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Medicine


Professor Matthew J. Mason

Professor of Comparative Physiology, Department of Physiology, Development & Neuroscience, University of Cambridge, Fellow at St Catharine’s College

Matt is a physiology lecturer in the Department of Physiology, Development & Neuroscience at the University of Cambridge. He teaches and examines Cambridge undergraduate medical students in physiology. His main research focus is the structure, function and evolution of the vertebrate auditory system, which he investigate using techniques such as micro-CT scanning. He then use models of middle ear function to investigate the likely hearing range of the animal in question, in order to answer questions about how hearing is matched to particular acoustical properties of the environment that the animal lives in, and how the ear might have evolved.


Dr Aaron D’sa

Consultant in Anaesthesia and Pain Medicine at Norfolk and Norwich University
Hospital, Fellow at Fitzwilliam College, University of Cambridge

Aaron is an anaesthetist, and is involved in teaching undergraduate medical students physiology and neuroscience at the university. He is a Specialist Registrar in Anaesthesia and Intensive Care Medicine at Addenbrooke's Hospital. He also has an interest in law and ethics. His BA is in Law, and after graduating from Fitzwilliam in 2012 he undertook an LLM in Medical Law. His Masters thesis examined 'Do Not Resuscitate' orders, and their similarities with other 'ceiling of care' decisions.




Dr Saeed Kayhanian

Academic Clinical Fellow in Neurosurgery at Cambridge University Hospitals
Fellow at Fitzwilliam College, University of Cambridge

Saeed is a neurosurgeon at Addenbrooke’s Hospital and teaches anatomy to medical students at Fitzwilliam College. He has a research interest in brain injury and cell therapy for the treatment of neurological disease.


Dr Robert Abayasekara

Lecturer in Human Reproduction and Director of Pre-Clinical studies for Medicine, Admissions Tutor in Sciences, Fellow at Fitzwilliam College, University of Cambridge

Robert is a highly experienced medical and veterinary educator who has taught Endocrinology and Reproduction in Oxford, London and Cambridge.




■ Course Content

The FitzEd Medicine course offers pre-university students an insight into medical science, current issues in healthcare and developments in medical technology. You will have the opportunity to extend your understanding of important topics in physiology and anatomy, discuss and debate important ethical issues, and even think about the design process for medical technology. The course will include small group teaching from experts, as well as sessions to guide key writing and presenting skills, and the opportunity to present your own project work.

Date 27th July

Monday

28th July

Tuesday

29th July

Wednesday

30th July

Thursday

31st July

Friday

Part 1 Introduction to Physiology

Part 1Introduction to Anatomy
 Part 2 Introduction to Physiology
Part 2 Introduction to Anatomy
Rescuing the
injured brain
Lab Day
How to build an anaesthetic
machine
Ethics and Medicine
Date 3rd Aug

Monday

4th Aug

Tuesday

5th Aug

Wednesday

6th Aug

Thursday

7th Aug

Friday

 

Endocrine system

Reproductive

system

Guided Presentation

and Essay Writing

Supervision day

Final

Presentations

*List of prerequisite knowledge:
At minimum familiarity with GCSE-level biology.
*Test your knowledge of the prerequisites! Can you answer the questions below?
1. What determines the pressure within a container of gas, what causes a gas to move, and what gases are biologically important?
2. Can you describe in general terms the anatomical route that blood takes from the left ventricle, around the circulation and back to the left ventricle? What causes it to flow, and what determines the direction it takes?
3. What substances does a cell need to survive? How can these substances be classified? Are there any required substances which do not enter the cell?
*Recommended reading list (optional):
Have a look at some of the physiology videos on www.hippomedics.com, Prof. Mason’s teaching channel. Those on electrochemical gradients, cardiovascular physiology and endocrinology will be most useful.

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Business Economics


Professor Christos Genakos

Professor of Economics and Policy, Cambridge Judge Business School
Director of the MPhil in Technology Policy Programme
Director of Studies in Management and Fellow in Economics at Fitzwilliam College
BSc (National and Kappodistrian University of Athens), MSc (University College London), PhD (London Business School)

Prof Genakos’ research focuses on applied microeconomics, with an emphasis on industrial organization and quantitative techniques for competition analysis and regulation. He has published in many leading international peer-refereed journals and has advised many leading firms and international organizations on regulation, antitrust and pricing related issues. He is a College Lecturer in Economics, and directs studies in Management.


■ Course Content

Business economics covers the economic foundations of managerial decision making. In this module, we explore the importance of economics and how it relates to our everyday lives. Our task is to develop familiarity with microeconomic models to better understand concepts such as costs, demand, profit, competition, pricing, compensation and market entry strategy and to acquire the more subtle ability to apply them to real and simulated situations with a focus on learning how to “think like a manager” applying this thinking process to improve managerial decisions.

Date 27th July

Monday

28th July

Tuesday

29th July

Wednesday

30th July

Thursday

31st July

Friday

 

Introduction to

business

economics

Demand, Supply and

Market Equilibrium

Firm Production

Process: Technology and

Costs

Supervision Day 1

The analysis of

competitive

markets

Date 3rd Aug

Monday

4th Aug

Tuesday

5th Aug

Wednesday

6th Aug

Thursday

7th Aug

Friday

 

Market power and

Strategic pricing

Game theory

and competitive

strategy

Guided Presentation

and Essay Writing

Supervision Day 2 Final Presentations

*List of prerequisite knowledge:
Algebra: taking derivatives and differentiation.

*Test your knowledge of the prerequisites! Can you answer the questions below?
Why do brown eggs cost more (and sell less) than white eggs?
Why do airlines charge much more for tickets purchased at the last minute, while West End theaters follow the opposite practice?
Is it always beneficial to act first and charge a price for your product when you are competing with other firms in a market?

Optional Reading:
Dasgupta (2007) Economics: A Very Short Introduction
Dixit (2014) Microeconomics: A Very Short Introduction

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

Mathematics


Professor Anthony Ashton

Fellow, Tutor, College Professor, Director of Studies in Mathematics at Homerton College, University of Cambridge
Lecturer, Department of Applied Mathematics & Theoretical Physics, University of Cambridge

Anthony Ashton has been lecturing courses in the Mathematical Tripos since 2011. His teaching responsibilities fall across a broad range of subjects, from courses on Differential Equations and Probability in Part IA all the way to Analysis of PDEs in Part III. He is director of studies in mathematics at Homerton, where he oversees the progress of around 40 students each year. In 2017 he was awarded the Pilkington Prize, a prestigious prize awarded by the University of Cambridge to academics who have made an outstanding contribution to teaching and outreach within the University.

His research interests focus mainly on partial differential equations (PDE). More specifically, he works on spectral approaches to elliptic boundary value problems, Lie group methods, new approaches to regularity problems in linear PDE and certain aspects of mathematical physics. He is also interested in several problems in analytic number theory relating to the Hurwitz zeta function.


■ Course Content

This course will take students through the rudiments of probability theory. We will start with an axiomatic approach; students will be introduced basic notions of counting and combinatorial methods in classical probability theory. After this we will move onto general discrete probability distributions, random variables, expectation, variance. Finally, we will introduce the idea of conditional expectation. This will be a challenging course aimed at late stage high-school students interested in mathematics typically encountered in the first year of an undergraduate degree.

Date 27th July

Monday

28th July

Tuesday

29th July

Wednesday

30th July

Thursday

31st July

Friday

 

Axiomatic

Framework

Classical

Probability I

Classical Probability

II

Supervision Day 1

Discrete

Probability

Distributions I

Date 3rd Aug

Monday

4th Aug

Tuesday

5th Aug

Wednesday

6th Aug

Thursday

7th Aug

Friday

 

Discrete

Probability

Distributions II

Conditional

Expectation

Guided Presentation

and Essay Writing

Supervision Day 2

Final

Presentations

*List of prerequisite knowledge:
The course will move at a fast pace. Some prior experience with binomial coefficients, real valued functions, geometric sums. No prior knowledge of probability is needed.

*Fitzwilliam College reserves the right to changes to the course content or the course instructor.

 Timetable 

  ACCOMMODATION  

The 16-18 participants will be accommodated in single en-suite rooms in Fitzwilliam College, Cambridge. Accommodation is arranged by the college, considering students' ages and course enrollments. Without special reasons, students can't choose or change dormitories. Given Cambridge's long history, its accommodation is simple. We hope students will keep an open mind and enjoy the authentic study and campus life.

  Cultural Activities  

Supervision

Teamwork

Connections

Lecture

Sports

Formal Dinner

Closing Ceremony

Celebration

Punting

 Double Bursary Policy 

* Outstanding participants in the STEM challenge may receive a bursary of up to £700 (RMB 6,500) from Fitzwilliam College, plus an RMB 1,000 ASEEDER Bursary, resulting in a total maximum reduction ofRMB 7,500

Fitzwilliam College Bursary (for the UK Summer School only)

Directly awarded by Fitzwilliam College, University of Cambridge, eligible students will receive an exclusive scholarship congratulatory email from the college prior to the program! Those who achieve outstanding results in the following assessments hosted by ASEEDER are eligible to obtain this bursary. The specific corresponding assessments, awards and amounts are as follows:

Assessment Name Award Level Bursary Value (GBP) Bursary Value (CNY)
UK Chemistry Olympiad (UKChO) Gold £700 CNY 6,500
Silver £600 CNY 5,500
Bronze £400 CNY 3,700
British Biology Olympiad (BBO) Gold £700 CNY 6,500
Silver £600 CNY 5,500
Bronze £400 CNY 3,700
British Mathematical Olympiad (BMO) Gold & Silver & Bronze £700 CNY 6,500
Distinction £600 CNY 5,500
Merit £400 CNY 3,700
American Mathematics Competitions 10/12 (AMC) Honor Roll of Distinction £700 CNY 6,500
Distinction £600 CNY 5,500
Achievement Roll £400 CNY 3,700
British Physics Olympiad (BPhO) Top Gold & Gold £700 CNY 6,500
Silver £600 CNY 5,500
Bronze Ⅰ & Bronze Ⅱ £400 CNY 3,700
Physics Bowl Global Top 100

Asian Top 10

Regional Top 10

National Top Gold

National Gold

National Silver

National Bronze

£300 CNY 2,700
United States of America Biology Olympiad (USABO) Top Gold

Gold

Silver

Bronze

£300 CNY 2,700
Canadian Chemistry Contest (CCC) Global Awards

Gold

Silver

Bronze

£300 CNY 2,700
Australian Science Olympiads – Biology (ASOB) High Distinction

Distinction

Credit

£300 CNY 2,700
Australian Science Olympiads – Chemistry (ASOC) High Distinction

Distinction

Credit

£300 CNY 2,700

 

Intermediate Mathematical Challenge (IMC) Gold

Silver

Bronze

£400 CNY 3,700
American Mathematics Competitions (AMC 8) Perfect Score

Honor Roll of Distinction

Honor Roll

Achievement Roll

£400 CNY 3,700
Junior Physics Challenge(JPC) Gold

Silver

Bronze

£400 CNY 3,700
Biology Challenge (BC) Gold

Silver

Bronze

£400 CNY 3,700
International Chemistry Quiz (ICQ) Excellence

High Distinction

Distinction

Credit

£400 CNY 3,700
The Junior Canadian Chemistry Olympiad (JCCO) Global Awards:

Gold

Silver

Bronze

£400 CNY 3,700

ASEEDER Bursary

Up to RMB 1,000. It is given by ASEEDER. You may get it if you join certain ASEEDER programmes or challenges and win awards. Check the ASEEDER bursary website (https://www.seedasdan.org/scholarship/) or your ASEEDER mini program for details.

*Congratulation email from Fitzwilliam College, Cambridge

  Programme Information 

14-15 years old courses:

Date:

12th-25th July, 2026 (40-hour tuition)

Age:

14-15 years old (Birthday between July 26, 2010 and July 12, 2012)

 

15-18 years old courses:

Programme 1:

12th-25th July, 2026 (40-hour tuition)

Age:

15-18 years old (Birthday between July 26, 2007 and July 12, 2011)

Programme 2:

26th July - 8th August, 2026(40-hour tuition)

Age:

15-18 years old (Birthday between August 9, 2007 and July 26, 2011)

 

Admission quota:

15 students for each subject

Requirements

Students need to satisfy at least one of the following requirements:

  • Students that have received a A or above in the ASDAN EPQ are eligible for direct admission.
  • Age 14-15: Students that provides certification on IELTS level 6.0, TOEFL 80, and an A or above in a subject that is related to the short course they want to apply for in this programme.
  • Age 15-18: Students that provides certification on IELTS level 6.5, TOEFL 90, and an A or above in a subject that is related to the short course they want to apply for in this programme.
  • If you do not meet the above criteria, you will be required to do a phone or an online interview in English with an ASEEDER teacher.
*Note: Students aged 15 may select either the 14–15 Age or 15–18 Age courses based on their English proficiency and academic interests. However, those who fail to meet the entry requirements for the 15–18 Age courses will only be eligible to apply for the 14–15 Age courses.

* Since each course is limited to 15 students, registration will close once filled. Students' spots will be secured upon successful registration. However, the final enrollment result will depend on notification from Fitzwilliam College. If a course is fully booked, ASEEDER's teachers will contact the student to discuss an alternative course option.

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