Training and Research
PhD Programme Courses/classes
This page lists the training activities for the PhD programme for the academic year 2025/2026. Additional activities will be added during the year. Please check back regularly for updates!
Mathematics
Credits: 7.5
Language: English
Teacher: Corrado De Vecchi, Andrea Mazzon
Probability
Credits: 7.5
Language: English
Teacher: Marco Minozzo
Introduction to Economics
Credits: 5
Language: English
Teacher: Roberto Ricciuti
Mathematical Statistics
Credits: 5
Language: English
Teacher: Catia Scricciolo
Continuous Time Econometrics
Credits: 5
Language: English
Teacher: Cecilia Mancini
Macroeconomics I
Credits: 7.5
Language: INGLESE
Teacher: Tamara Fioroni, Alessia Campolmi
Microeconomics I
Credits: 10.5
Language: English
Teacher: Simona Fiore, Claudio Zoli, Martina Menon
Game Theory
Credits: 5
Language: English
Teacher: Francesco De Sinopoli
Financial Time Series
Credits: 5
Language: English
Teacher: Giuseppe Buccheri, Lorenzo Frattarolo
Stochastic Optimization and Control
Credits: 5
Language: English
Teacher: Athena Picarelli
Advice to Young Researchers
Credits: 4
Language: English
Teacher: Marco Piovesan
Job Market Orientation
Credits: 2
Language: English
Teacher: Simone Quercia
Behavioral and Experimental Economics
Credits: 4
Language: English
Teacher: Simone Quercia, Maria Vittoria Levati, Marco Piovesan
Inequality
Credits: 4
Language: English
Teacher: Francesco Andreoli, Claudio Zoli, Lidia Ceriani
Stochastic Processes in Finance
Credits: 5
Language: English
Teacher: Sara Svaluto-Ferro
Development Economics
Credits: 4
Language: Italian
Teacher: Federico Perali
Financial Mathematics
Credits: 5
Language: Inglese
Teacher: Alessandro Gnoatto
Health Economics
Credits: 4
Language: English
Teacher: Paolo Pertile, Paola Bertoli
Political Economy
Credits: 4
Language: English
Teacher: Emanuele Bracco, Roberto Ricciuti
Probability (2025/2026)
Teacher
Referent
Credits
7.5
Language
English
Class attendance
Compulsory
Location
VERONA
Learning objectives
The course is intended for 1st year students in a PhD in Economics and Finance.
The purposes of this course are: (i) to explain, at an intermediate level, the basis of probability theory and some of its more relevant theoretical features; (ii) to explore those aspects of the theory most used in advanced analytical models in economics and finance. The topics will be illustrated and explained through many examples.
Prerequisites and basic notions
Basic Calculus and basic knowledge of probability theory. In particular, students should have been exposed to the material in Lectures 1, 2, 3, 4, 5, 6, 8 of the MIT online course “Introduction to Probability” (RES.6-012) by John Tsitsiklis and Patrick Jaillet
https://ocw.mit.edu/courses/res-6-012-introduction-to-probability-spring-2018/
Attendance to more advanced courses such as real analysis, probability, distribution theory, and statistical inference would be desirable.
Program
Course content
1. Algebras and sigma-algebras, axiomatic definition of probability, probability spaces, properties of probability, conditional probability, Bayes theorem, stochastic independence for events.
2. Random variables, measurability, cumulative distribution functions, and density functions.
3. Transformations of random variables, probability integral transform.
4. Lebesgue integral, expectation and variance of random variables, Markov inequality, Tchebycheff inequality, Jensen inequality, moments and moment generating function.
5. Multidimensional random variables, joint distributions, marginal and conditional distributions, stochastic independence for random variables, covariance and correlation, Cauchy-Schwartz inequality.
6. Bivariate normal distribution, moments, marginal and conditional densities.
7. Transformations of multidimensional random variables.
8. Convergence of sequences of random variables, the weak law of large numbers, and the central limit theorem.
Bibliography
Didactic methods
The lesson will be delivered in person. Topics will be illustrated with the use of many examples.
Learning assessment procedures
A two-hour written paper at the end of the course. No material is permitted during the examination.
Scheduled Lessons
| When | Classroom | Teacher | topics |
|---|---|---|---|
|
Thursday 02 October 2025 15:00 - 18:00 Duration: 3:00 AM |
Polo Santa Marta - Sala Andrea Vaona (DSE) [1.59 - 1] | Marco Minozzo | Introduction to the course. Basic notions: elementary events, sample spaces, random experiments, event trees, events. Algebras and sigma-algebras, properties of algebras, Borel sigma-algebra. Kolmogorov axioms of probability, properties of probability, sum rule. |
|
Tuesday 07 October 2025 14:00 - 17:00 Duration: 3:00 AM |
Polo Santa Marta - Sala Andrea Vaona (DSE) [1.59 - 1] | Marco Minozzo | Conditional probability with respect to a non-null event, product rule, properties of conditional probabilities, conditional probabilities on event trees. Theorem of total probability and Bayes formula. Independence for two or more events. Simpson paradox. |
|
Thursday 09 October 2025 15:00 - 18:00 Duration: 3:00 AM |
Polo Santa Marta - SMT.02 [SMT.2 - terra] | Marco Minozzo | Random variables, measurability condition, cumulative distribution function. Discrete random variables. Continuous random variables, density function. |
|
Tuesday 14 October 2025 14:00 - 17:00 Duration: 3:00 AM |
Polo Santa Marta - Sala Andrea Vaona (DSE) [1.59 - 1] | Marco Minozzo | Density function and cumulative distribution function of continuous random variables. Cumulative distribution function as a linear combination of basic cumulative distribution functions. Transformations of random variables, log-normal distribution, probability integral transform, Monte Carlo simulations. Lebesgue integral for simple and non-negative random variables. |
|
Thursday 16 October 2025 15:00 - 18:00 Duration: 3:00 AM |
Polo Santa Marta - SMT.02 [SMT.2 - terra] | Marco Minozzo | Lebesgue integral for generic random variables. Expectation, basic properties, classical examples. Expectation of a transformation of a random variable, notable examples. Properties of expectation, linearity property. Varianza of a random variable, properties of the variance. Standardization of a random variable. |
|
Tuesday 21 October 2025 14:00 - 17:00 Duration: 3:00 AM |
Polo Santa Marta - Sala Andrea Vaona (DSE) [1.59 - 1] | Marco Minozzo | Markov inequality, Tchebycheff inequality, Jensen inequality. Moments, moment generating function, properties of the moment generating function. Bidimensional and multidimensional random variables, joint cumulative distribution function. |
|
Thursday 23 October 2025 15:00 - 18:00 Duration: 3:00 AM |
Polo Santa Marta - LAB.SMS.1 [LAB.SMS.1 - sotterraneo] | Marco Minozzo | Properties of the joint cumulative distribution function. Discrete bivariate and multidimensional random variables, Joint probability function, marginal probability functions, conditional probability functions. Continuous bivariate and multidimensional random variables, joint density function, double integrals, marginal densities, conditional densities. |
|
Tuesday 28 October 2025 14:00 - 17:00 Duration: 3:00 AM |
Polo Santa Marta - Sala Andrea Vaona (DSE) [1.59 - 1] | Marco Minozzo | Marginal and conditional densities. Independent random variables, properties, discrete and continuous examples. Transformations of multidimensional random variables, sum of two random variables, convolution formulas. Expectation of transformations of multidimensional random variables. |
|
Thursday 30 October 2025 15:00 - 18:00 Duration: 3:00 AM |
Polo Santa Marta - Sala Andrea Vaona (DSE) [1.59 - 1] | Marco Minozzo | Expectation of a linear combination of random variables. Covariance and linear correlation coefficient. Variance of a linear combination of random variables. Distribution of a linear transformation and of a linear combination of normally distributed random variables. Expectation and variance of the arithmetic mean of more random variables. Conditional expectation of a random variable with respect to another random variable. |
|
Wednesday 05 November 2025 09:00 - 12:00 Duration: 3:00 AM |
Polo Santa Marta - Sala Andrea Vaona (DSE) [1.59 - 1] | Marco Minozzo | Convergence of infinite sequences of random variables: almost sure convergence, convergence in probability, convergence in distribution, convergence in quadratic mean. Weak law of large numbers, Bernoulli formulation. Central limit theorem. Strong law of large numbers. |
