QUANTITATIVE FINANCE

Course objectives

The goal of this course is to describe the main pricing methodologies for financial instruments, when the underlyings are governed by either discrete-time and continuous-time stochastic processes, with particular emphasis on the Black-Scholes-Merton model. Moreover, the course provides computational tools for pricing and hedging. The main topics will be introduced from a theoretical perspective. Furthermore, they will be analyzed from a computational point of view, using MATLAB software. • (Knowledge and understanding) At the end of the course, students will be able to apply the main numerical methodologies for financial derivatives pricing, both in discrete-time and continuous-time diffusion market models. They will also be able to understand and illustrate the main characteristics of each numerical method and to recognize the most effective solution to the economic-financial problem they will face. Finally, they will manage to apply the theoretical framework to practical experiences, in order to obtain the fair value of derivative securities. • (Applying knowledge and understanding) The students who pass the exam can identify the suitable model to describe the financial structure, and also establish the most efficient methodologies to solve the related financial issues. • (Making judgements) By using the information inferred from the lectures, students autonomously may inspect the financial context, take into account the whole range of methods to use, and interpret the obtained results. • (Communication skills) After passing the exam (that consists of a written/practical text with open-ended questions and/or exercises and/or practical works with Matlab), students will be able to adequately outline the main topics covered by the lectures, either verbally or through written documents. • (Learning skills) Standard lectures, lab activities and self-study allow students to develop a method to autonomously acquire new financial knowledge and theoretical\practical skills.

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IMMACOLATA OLIVA Lecturers' profile

Program - Frequency - Exams

Course program
The goal of this course is to describe the main pricing methodologies for financial instruments, when the underlyings are governed by either discrete-time and continuous-time stochastic processes, with particular emphasis on the Black-Scholes-Merton model. Furthermore, the course provides computational tools for pricing and hedging. More precisely, lectures will deal with the following: PART ONE: Fundamentals of financial mathematics (interes rate term structures). Introduction and valuation of interest rate derivatives. Introduction to equity derivatives: options and portfolio strategies, option pricing, put-call parity. Binomial model: evolution of the underlying, real-world and risk-neutral probability, properties of American derivatives, valuation using binomial trees (theory and Matlab implementation) PART TWO: From discrete-time to continuous-time models: binomial approximation of continuous-time diffusive processes. Finite differences methods and application to Partial Differential Equations (PDEs): the heat equation and the Black-Scholes equation. PART THREE: Monte Carlo methods for derivative pricing.
Prerequisites
Students are required to know mathematics and probability
Books
I. Oliva e R. Renò (2021) Principi di Finanza Quantitativa, Maggioli Editore P. Glasserman (2004) Monte Carlo Methods for Financial Engineering, Springer. J. Hull (2000) Opzioni, futures e altri derivati, Pearson Ed.
Teaching mode
The course is based on standard classroom lectures and multimedia lectures with Matlab
Frequency
The course is delivered in in-person mode: the teacher has her class in person from Faculty classrooms, using the computer equipment available. Students must attend lectures in person. Lessons are also recorded and shared with students
Exam mode
The assessment procedure is based on a written test with open-ended questions and\or exercises and\or practical works with Matlab. In particular, the exam will consist of three questions related to some topics covered during the lectures: one question will refer to discrete-time modeling, the remaining ones will focus on issues associated with continuous-time models. In case of open-ended questions, students will be required to provide an exhaustive answer, attempting to contextualize the techniques used with respect to the suggested modeling. As for the exercises, students are required to show the whole mathematical procedure that leads to the final result, also providing appropriate comments. For the computer tests, students will have to apply the numerical techniques deemed most suitable for the solution of a specific financial problem, building appropriate Matlab routines
Bibliography
S. J. Shreeve (2000) Stochastic calculus for finance II -- continuous-time models, Springer. P. Brandimarte (2006) Numerical Methods in Finance And Economics: A Matlab-based Introduction, Wiley.
Lesson mode
The course is based on standard classroom lectures and multimedia lectures with Matlab
  • Lesson code1017130
  • Academic year2024/2025
  • CourseFinance and insurance
  • CurriculumFinanza
  • Year1st year
  • Semester2nd semester
  • SSDSECS-S/06
  • CFU9
  • Subject areaMatematico, statistico, informatico