Mathematics

Degrees Awarded

BSc - 3 Years

BSc (Honours) - 4 Years

Programme overview

Mathematics has been a fundamental domain of human thought, imagination, and creativity for thousands of years, across a variety of cultures. Today, mathematical concepts have not only applications in mathematics, but also across an extraordinarily large number of disciplines, including the physical, natural, and social sciences; engineering; data science; business; and finance. The Krea University Mathematics Major serves as a comprehensive introduction to modern mathematical thought, and also provides training in mathematical problem-solving. It also motivates an understanding of the direction, fundamental relevance, applicability, and social context of mathematics in the 21st century.

The increasing importance of pure mathematics, as well as the use of algorithmic and statistical techniques across disciplines suggests that the relevance of mathematics will only grow. Students will be introduced to these domains and their applications, both within the classroom and through real-world immersive experiences, and will therefore be excellently placed to develop further specific and broad competencies in these areas.

Certain latest developments in areas like geometry, topology, algebra, analysis, number theory, combinatorics and partial differential equations increasingly impact many facets of human life. Mathematics students at Krea will be exposed to these developments through coursework and seminars.

What makes

Mathematics at Krea Unique

A student majoring in Mathematics at Krea will emerge with fluency in the language of mathematical and logical reasoning, and gain specific technical knowledge and understanding of a broad core of foundational content in areas such as calculus, algebra, analysis, probability, differential equations, geometry, topology, combinatorics  and number theory. They are able to also take a number of more specialised courses from a basket of recommended electives; this will deepen their understanding of specific mathematical disciplines in line with their interests. The topics selected for these recommended elective courses provide a snapshot of the breadth and depth of modern mathematics. Upon completion of their degree, a Krea Mathematics Major will be able to appreciate some of the questions and themes that guide current research in mathematics, and recognise the nature of the subject as a creative technical discipline.

The students will have the opportunity to study, through interdisciplinary coursework, how mathematics resonates and interacts with other academic areas. Students majoring in Mathematics at Krea will develop an appreciation for the historical context of the field. Writing and communicating mathematical information coherently and precisely is an important skill, involving appropriately framing context and describing technical details – in an increasingly interconnected and technologically dependent world it is also becoming important for technically and scientifically trained individuals to write effectively for a non-technical audience. The Mathematics Major at Krea will strongly emphasise the importance of good writing technique, and students majoring in Mathematics will be trained along these lines. Krea mathematics students, like their counterparts majoring in other disciplines, will write a Capstone thesis in their final year. This will provide an opportunity to develop a comprehensive understanding of a specific topic of interest; allow a hands-on appreciation for the nature of mathematical research; and offer a chance to further hone communication skills through long-form specialised writing.

Programme Structure

Learning Outcomes

The outcome of a Mathematics Undergraduate Degree, first and foremost, is to develop a mathematical way of thinking. This way of thinking requires unsparing doubt and therefore the standards of rigour are tied to the concept of the proof. Our Mathematics curriculum is designed to initiate students to proof first through the first year core course on Mathematical Reasoning where they learn logic, combinatorial methods of counting and become cognisant of the notion of a function, and second through the unique course on Proofs and Ideas which, while reinforcing their learnings, introduces them to foundational techniques and strategies of proof. This course is also the student’s first encounter with the writing of proof. We think by writing and the skills of writing proofs that students learn here become their tools that they hone, refine, sharpen as they learn more and more strategies in different mathematical contexts.

Our curriculum is focused on laying a very strong foundation in modern mathematics for our students. This means that we are uncompromising in our commitment to two course sequences – one on Analysis and another on Algebra. While Analysis is the formalisation of calculus, Algebra does the same for manipulation of symbols, equations, symmetries. Our students come away developing ease with the calculations of limits of sequences, series and functions, differentiation of functions of one and multiple variables, as well as integration in one and many dimensions and on curves and surfaces. These calculations are given a theoretical grounding through the formal aspects of analysis in the form of the so-called epsilon-delta formalism which only takes on more complex facets as students grow in their mathematical maturity. Similarly, with Algebra, as they develop facilities with calculations of solutions of systems of equations, eigenvalues, eigenvectors, calculations related to symmetries, the students become trained in the thought process and proof techniques specific to the study of algebra. This is supplemented by a grounding in Topology and Geometry.

Mathematical culture has taught us the value of rigour as we have seen many a delicate argument fall apart under scrutiny. This utmost attention to detail and nitpicking is a habit that students are made to develop and encouraged into. It is no surprise then that our students are always ready to challenge weak arguments. Our teaching methods reflect this as we do not offer up either theorems or proofs on a platter but engage students in a discourse on developing them with our guidance. This makes the critical thinking skills of Mathematics unmatched in other disciplines.

This requirement of critical thinking is the reason behind our (and every good Mathematics curriculum’s) unrelenting insistence on proof as the vehicle of not just mathematical understanding but also the fun inherent in the challenge of a theorem. This rigor is also transferred to our Applied Mathematics courses on Differential Equations, Numerical Methods, Probability and Statistics. We would be remiss if we did not hold application based courses to the same level of scrutiny and critical thought as we did our core and foundational courses. Therefore, these courses lean heavily on the single and multivariable calculus and linear algebra courses to develop their arguments. Yes, the students learn to solve differential equations by hand and on computer, yes, they learn how to solve systems of linear equations by hand and on a computer, but they also learn why those algorithms work and the proofs are always joyous. They also develop programming skills in Python, Julia and R in the courses as they implement algorithms from numerical methods on the computer. In a world where machines are being imposed on us to do our thinking, we are making sure that our students do not outsource their thinking to machines.

Finally, about electives, apart from the standard electives on Number Theory, Combinatorics, Graph Theory, Measure Theory which are all important either from the point of view of mathematical culture or their intersections with other disciplines, there is also an elective on writing in Mathematics and Scientific Journalism where the students learn the skills of writing technical as well as journalistic articles.

Assessment Methods

Teaching and Learning Methods

  • Lectures
  • Tutorials
  • Office Hours
  • Weekly Seminars
  • Programming Sessions
  • Group Projects
  • Capstone Project
  • Visits to Mathematics Institutes in Chennai

Assessment Methods

  • Coursework
  • Individual Research
  • Presentations
  • Programming Challenges
  • Reports
  • Quizzes
  • Written Examinations
  • Classroom Worksheets
  • Essays

Graduation Requirements

Mathematics graduation requirements for the three-year and four-year degree programmes:

  Credits needed to earn a
Single Major in
Mathematics
Credits needed to earn a
Double Major in
Mathematics
Credits needed to earn a
Minor in Mathematics
Credits needed to earn a
Concentration in Mathematics
3-year programme 60 48 24 16
4-year programme 80 64 32 16

Mathematics graduation requirements for the three-year and four-year degree programmes:

  Single Major Double Major Minor Concentration
Required Elective Required Elective Required Elective Required Elective
Three-year Programme 52 8 48 0 16 8 16 0
Four-year Programme 68 12 52 12 16 16 16 0

To earn a Mathematics Major, Minor, or Concentration, students must complete the required and elective credits in Mathematics courses as indicated above.

Career and Study Opportunities

Krea mathematics graduates pursue diverse careers in academia and across sectors such as government, public policy, technology, finance, data science, and consulting. 

Partnerships

Krea University has partnerships with leading universities in India and abroad that offer students pathways for higher education and research. These collaborations create opportunities for postgraduate study, academic exchange, and continued learning across disciplines. Know more

Higher Education Pathways: MSc/PhD in Mathematics, Applied Mathematics, Statistics, Data Science, Actuarial Science, Operations Research, Financial Mathematics, Computational Mathematics, Mathematical Physics and more.

Job roles: Actuary, Statistician, Data scientists, Data analyst and more.

Faculty

 Dr C P Anil Kumar

Associate Professor, Mathematics

Dr Debangana Mukherjee

Assistant Professor, Mathematics

Dr Gangotryi Sorcar

Assistant Professor, Mathematics

Professor K N Raghavan

Professor, Mathematics

Dr Rishi Vyas

Assistant Professor, Mathematics

Dr Shibi Vasudevan

Assistant Professor, Mathematics

Dr Soumya Dey

Assistant Professor, Mathematics

Dr Vivek Tewary

Assistant Professor, Mathematics

Dr V Subha 

Visiting Faculty, Mathematics

 Dr C P Anil Kumar

Associate Professor, Mathematics

Dr Debangana Mukherjee

Assistant Professor, Mathematics

Dr Gangotryi Sorcar

Assistant Professor, Mathematics

Professor K N Raghavan

Professor, Mathematics

Dr Rishi Vyas

Assistant Professor, Mathematics

Dr Shibi Vasudevan

Assistant Professor, Mathematics

Dr Soumya Dey

Assistant Professor, Mathematics

Dr Vivek Tewary

Assistant Professor, Mathematics

“While the rigorous mathematical coursework at Krea showed me that some questions are still unsolved, the techniques taught have made me optimistic while facing new problems. Engaging with the subtler aspects of the subject, such as its social, historical and philosophical dimensions has mainly been possible due to the supplemental coursework and the interactions with faculty and peers, and this has heavily influenced the way I think about, write and present mathematics.”

Nayan Rajesh

Cohort of 2019-22, SIAS