Science and Engineering Route
The Science and Engineering Route (STEM Course) is designed for students aiming to progress to degree programmes in Engineering, Physics, or related STEM fields.
This route provides a strong foundation in the core principles of mathematics, physics, and engineering, helping you to develop the analytical and problem-solving skills needed for success at university and in technical or research-based careers.
Throughout the course, you will strengthen your understanding of key scientific concepts, learn to apply mathematical and computational methods to real-world challenges, and gain experience using industry-relevant software and modelling techniques. Alongside these technical skills, you will also build your communication, teamwork, and research abilities, which is essential for thriving in both academic and professional environments.
By the end of the course, you will be well prepared to progress to undergraduate degrees in engineering, physics, mathematics, or other science-related disciplines, and to take the next step toward a career in innovation, technology, or scientific research.
Key Information
Mode of Study: Full-time, on-campus
Course Start: 28 September 2026
(available as Extended IFP, start date - 17 August 2026)
Course End: 3 July 2027
Fees: £27,150 (£29,950 for Extended IFP)
Department: Warwick Global Academy
Application Deadline: 10 August 2026
Academic Research and Communication Skills
This module develops the academic language, literacy, and research skills needed for success in UK higher education. Students will practise reading, writing, listening, and speaking in academic contexts, learning how to structure arguments, present ideas clearly, and communicate effectively in written and spoken formats. The module also introduces critical academic practices such as evaluating sources, engaging in inquiry-based research, and reflecting on learning. Through teamwork and a research-based project, students apply these skills to authentic academic tasks. By the end of the module, students will be able to plan, produce, and present structured academic work, collaborate effectively with others, and demonstrate the independent study skills required for undergraduate success.
Foundations of Physics
This module introduces the key principles, models, and techniques of physics needed for analysing scientific and engineering problems. It provides a balance of theoretical understanding and practical application, preparing students for undergraduate study in physics and related mathematics-based fields. Students will learn to build, apply, and review physical models to explain and solve real-world problems. By the end of the module, students will be able to apply physical principles effectively to a range of scientific and engineering contexts.
Foundation Mathematics for Science and Engineering
This module develops the mathematical and statistical skills required to analyse problems in scientific and engineering contexts. Students will strengthen their understanding of core mathematical processes and learn how to apply algebraic tools and statistical models to a range of real-world examples. The module is designed to build both confidence and fluency in using mathematics as a problem-solving tool, laying the groundwork for more advanced study in science and engineering disciplines. By the end of the module, students will be able to select and apply appropriate mathematical and statistical methods to analyse and solve problems across science and engineering.
Mathematical Software and Modelling
This module integrates mathematical concepts with computational tools and modelling techniques, developing both technical and creative problem-solving skills. Students will be introduced to widely used software tools—MATLAB for programming and numerical analysis, LaTeX for professional mathematical writing, and GeoGebra for graphing and visualisation. Alongside essential programming constructs in MATLAB, students will apply mathematics and coding to practical problems such as numerical methods for solving equations and computing integrals. The module also introduces mathematical modelling with applications across engineering, the physical sciences, and beyond, including differential equations for modelling real-world systems. By the end of the module, students will be able to use mathematical software confidently and apply modelling techniques to explain and predict scientific and engineering phenomena.
Please note that given the interval between the publication of these modules and enrolment, some of the information may change. You can find out more by reading our terms and conditions.
Connect with our students
Meet D'Nette
Find out what it is really like to study at University of Warwick directly from D'Nette, who studied the IFP Physics and Engineering programme in 2024 and is now completing her BASc Design and Global Sustainable Development degree at Warwick – get answers on campus life, accommodation, study support, wellbeing and more.