This degree offers a balanced mix of theoretical and applied mathematics, enabling students to build deep mathematical understanding while gaining strong problem‑solving, analytical and IT skills. It suits students who enjoy rigorous mathematics — calculus, algebra, logic — and also want the flexibility to explore applied areas like statistics, financial modelling or cryptography.
Curriculum structure:
Year 1
In the first year, the student establishes a strong mathematical foundation through modules such as Calculus, Linear Algebra, Mathematical Proofs, Graph Theory, Data Analysis, Financial Mathematics, IT for Mathematics, and MAPLE Programming. These build core competencies in calculus (differentiation and integration), linear algebra (vectors, matrices, systems of equations), discrete mathematics (graphs), statistical thinking and data analysis, and give early exposure to mathematical software and proof-based reasoning.
Year 2
In the second year, the student progresses into more advanced and diverse topics. Modules like Differential Equations and Further Calculus deepen understanding of continuous mathematics and dynamic systems; Group Theory and Vector Spaces introduces abstract algebraic structures; and Statistical Methods and Modelling Markets plus Project Management add applied and practical dimensions — building skills valuable for finance, economics or operations research.
Year 3
In the final year, the student explores advanced and specialised mathematics. The core Academic Independent Study enables self‑guided research or project work on a chosen topic. Other modules such as Analysis, Mathematical Modelling, Category Theory, Cryptography and Number Theory, Error Correcting Codes, Financial Modelling and Forecasting, and Mathematics of Infinity allow specialisation — whether in rigorous analysis, abstract algebra, data‑security / cryptography, financial mathematics, or theoretical mathematics.
Focus areas:
Fundamental mathematics (calculus, linear algebra, proofs), discrete mathematics and graph theory, statistics and data analysis, mathematical software and computational methods, applied mathematics (financial modeling, operations research, modelling real‑world problems), and advanced/specialized maths such as abstract algebra, number theory, cryptography, analysis, and theoretical mathematics.
Learning outcomes:
Graduates will have well‑developed mathematical reasoning and proof‑writing skills, strong competence in calculus, algebra, differential equations, statistics and data analysis, and be fluent in using mathematical software. They will also be able to model and solve practical and theoretical problems, and — if they select electives appropriately — specialise in areas like cryptography, financial mathematics, coding theory or advanced pure mathematics.
Professional alignment (accreditation):
The course is accredited by the Institute of Mathematics and its Applications (IMA), meeting in part the educational requirements for chartered status.
Reputation (employability & outcomes):
The course is praised for its strong balance of theory and employable skills, with graduates often entering careers in finance, data analysis, scientific research, IT, operational research, or going on to postgraduate study including teaching.
The BSc (Hons) Mathematics programme at London Met helps students build both rigorous mathematical knowledge and practical, workplace-ready skills. Students get access to computing resources and mathematical software, and they engage in modules that emphasise application, modelling, data analysis, and mathematical programming.
Specifically:
Use of mathematical and statistical software: In modules like Data Analysis, students work with tools such as Excel, SPSS, or R to analyse real datasets and draw meaningful conclusions.
Programming and computational mathematics: The MAPLE Programming module gives hands-on experience with algebraic software, enabling computational problem-solving useful in industry, finance, or research.
Problem solving and modelling: Through Mathematical Modelling (and related modules), students tackle real-world problems — building mathematical models (differential/difference equations), analysing them (analytically or numerically), and interpreting results.
Flexibility through optional modules: Students can choose optional areas such as cryptography & coding, financial modelling and forecasting, error-correcting codes, and advanced analysis — allowing a mix of theory and applied work based on individual interests.
Independent research & personal development: In the final year, the Academic Independent Study module allows students to explore a mathematical topic of their choice under supervision — building self-study, research, and presentation skills.
Career readiness: The Career Development Learning module enables students to engage in work-related activity (placements, volunteering, projects) to gain real-world experience and professional exposure.
Course Structure & Academic Breadth
In the early years, students cover foundational mathematics: calculus, linear algebra, proofs, graph theory, data analysis, and IT-for-mathematics.
As they progress, they encounter more advanced topics such as differential equations, further calculus, group theory and vector spaces, project management, statistical methods & market modelling.
Final years offer a wide range of optional/specialisation modules such as mathematical modelling, analysis (real/complex), category theory, cryptography & number theory, error-correcting codes, financial modelling & forecasting, and abstract mathematics (e.g., mathematics of infinity).
The London Metropolitan University BSc (Hons) Mathematics prepares graduates for roles such as data analyst, quantitative analyst, financial modeller, operational researcher, or mathematics teacher. Upon graduation, they will have strong mathematical reasoning, statistical, modelling, and IT‑based skills valued in finance, technology, research, or education sectors:
The programme is accredited by the Institute of Mathematics and its Applications (IMA), satisfying (in part) the educational requirement toward chartered status — a long‑term credential respected by employers.
Through a mix of foundational and advanced modules (calculus, linear algebra, group theory, financial mathematics, cryptography, mathematical modelling, statistical methods, error‑correcting codes, and more), graduates gain versatile mathematical and computational skills adaptable to many industries.
The course includes a “Career Development Learning” module in the final year, enabling students to take up professional activities, placements, or projects — helping build real‑world experience, professional networks, and employability before graduation.
Graduates have gone on to work in sectors including finance, computing, statistics, research, and teaching — showing that a Mathematics degree can lead to varied, stable career paths.
Further Academic Progression:
After completing the degree, a graduate may pursue a master’s degree in fields such as applied mathematics, statistics, financial mathematics, data science, computational mathematics, or mathematical research. Alternatively, the graduate could opt for postgraduate teacher‑training to become a secondary‑school mathematics teacher, or other specialized professional qualifications — using the IMA‑accredited degree as a strong foundation for advanced academic or professional study.



Embark on your educational journey with confidence! Our team of admission experts is here to guide you through the process. Book a free session now to receive personalized advice, assistance with applications, and insights into your dream school. Whether you're applying to college, graduate school, or specialized programs, we're here to help you succeed.
