MATHEMATICS BASE COURSE

Course objectives

The main objective of the course is to provide the mathematical basis for understanding and formalizing the economic, financial and business subjects covered by the degree course as well as the quantitative tools necessary for the development of the related applications. The course covers topics that are usually part of the Mathematics program carried out in scientific high schools or experimental institutes with quantitative guidelines but enriches their contents with demonstrations and theoretical considerations aimed at making the subject less mnemonic and less mechanical and at the same time more easily accessible to those with a different education, too. The course assumes the knowledge of some preliminary topics of Set Theory, Algebra and Analytic Geometry and deals in particular with the following topics: resolution of systems of linear equations; study of the real function of a real variable; integral calculation; introduction to the study of real functions of several real variables. A. Knowledge and understanding Students who pass the exam will know the definitions, concepts and methods of calculation object of the program, but above all the logical-intuitive reasoning, the demonstrations and the geometric interpretations necessary for the understanding of their concrete meaning and for their application. In particular, they will know: the definition of a system of linear equations and the fundamental theorem for its solution; the definition of real function of a real variable and the characteristics of the different types of functions; the concepts of limit, derivative and integral and the relative theorems, properties and methods of calculation; the definition of real function of several real variables and the calculation of partial derivatives. B. Applied knowledge and understanding Students who pass the exam will know how to set up and solve a system of linear equations and will be able to discuss the result when a given parameter changes. They will be able to study the main "characters" of a function (such as, for example, existence, sign, behavior at extremes, continuity, derivability, monotonicity, concavity and convexity, integrability), to graphically represent the behavior and resolve some geometric problems connected. Finally, they will be able to calculate the partial derivatives of a real function of several real variables. C. Making judgment Students will develop the aptitude for mathematical reasoning, the ability to use formal language, the ability to argue the validity of a result through a rigorous demonstration and the ability to interpret and explain a phenomenon through a graphical representation. D. Communication skills The exam consists of a written test and an oral test. Students who pass the exam will then be able to solve the exercises assigned during the written test but also discuss the carrying out of the exercises. In particular, they will be able to motivate the methods of calculation used and justify and interpret the results obtained through an explicit reference to the theoretical topics covered by the program. E. Learning skills The students will have the necessary mathematical bases to support the other quantitative area exams included in the three-year degree course, but also the tools useful for formalizing, understanding, explaining and solving some simple problems of the teachings of other areas.

Channel 1
MARIA GIUSEPPINA BRUNO Lecturers' profile

Program - Frequency - Exams

Course program
Topics covered: - Linear algebra: vectors, matrices, solution of numerical and parametric linear systems; (approx. 3 weeks) - Real functions of one real variable: elementary and composite functions; domain, axis intersections, sign, extreme behavior, monotonicity, concavity/convexity, graphs, differentials, Taylor polynomial approximation. Real functions of two variables: introduction to first- and second-order partial derivatives; (approx. 7 weeks). - Integrals: indefinite integrals, basic integrals, exact integration methods, definite integrals, integral functions. (approx. 2 weeks) The detailed program will be published by the instructor on her webpage at the end of the course.
Prerequisites
The course assumes knowledge of the following preliminary topics: - Basic set theory and logic; - Powers, roots, logarithms, exponentials; - Polynomial factorization and polynomial division; - Solving algebraic equations and inequalities of different degrees; - Solving equations and inequalities involving roots, logarithms, and exponentials; - Solving systems of inequalities; - Analytic geometry (line, parabola, hyperbola). These topics will be briefly reviewed during lessons and can be further explored during office hours. Exercises on these topics may also be covered during tutoring sessions (workshops and study groups) organized by the Faculty alongside the course.
Books
Main references (theory and exercises): - Blasi A. (2012), Matematica corso base – Teoria ed esercizi, Balzanelli Editore. - Giorgi G., Molho E. (2015), Elementi di matematica, Giappichelli Editore. Additional exercise books: - Attias A., Ferroni P. (2012), Introduzione alla attività matematica. 700 esercizi svolti, CISU Edizioni. - Castellani M., Gozzi F. (2010), Matematica di base per l’Economia e l’Azienda. Esercizi e testi d’esame svolti, Società editrice Esculapio. - Guerraggio A. (2020), Matematica, Pearson. - Salsa S., Squellati A. (2023), Esercizi di Analisi matematica 1 e Algebra lineare, Zanichelli.
Frequency
Attendance is not mandatory but strongly recommended.
Exam mode
The exam consists of a written test and possibly a subsequent oral test, both in person. The written test will include multiple-choice and/or open-ended questions covering the entire syllabus and will take place in a computer lab using Moodle. Questions will be numerical and/or theoretical-practical, requiring calculations and logical reasoning. Answers must be submitted on the computer, but each solution must also be written on paper (provided by the instructor) and handed in at the end. Students achieving the maximum grade in the written test may choose whether or not to take an oral exam. The oral test, if taken, will also be in person and consist of exercises and/or theoretical questions on any syllabus topic. The final grade will consider not only correctness and completeness but also: clarity and order; proper use of notation and terminology; concise formalization and description of solution methods; commentary, coherence, and result presentation; expository clarity; logical rigor; mastery of theoretical reasoning; and ability to summarize.
Lesson mode
Regular classes are held entirely in person in a traditional/lecture format. Additional lessons and workshops will be conducted in person or remotely (synchronously via Zoom or Meet and/or as video recordings or other materials available on Moodle). Other exercises and self-assessment tests will also be organized on Moodle.
Channel 2
CLAUDIA CECI Lecturers' profile

Program - Frequency - Exams

Course program
The topics of the course’s lessons are listed in the following. BASICS OF LINEAR ALGEBRA: vectors and matrices, operations with vectors and matrices – linear dependence and independence of vectors, rank of a set of vectors – determinant of a square matrix – rank of a matrix . SYSTEMS OF LINEAR EQUATIONS: Rouché-Capelli’s theorem and Cramer’s theorem – Solution of a system of linear equations – parametric systems of linear equations – homogeneous systems of linear equations. NUMBERS: real numbers and sets of real numbers – majorants, minorants, maxima and minima of a set – intervals – neighborhood of a point – open and closed sets –accumulation points. REAL VALUED FUNCTION IN A SINGLE REAL VARIABLE: function and its Cartesian representation – elementary functions (straight line, parabola, hyperbole, cubical, exponential and logarithmic functions) – sign and monotonicity of a function – inverse function – Power functions, Polynomial and rational function – absolute value – composition of functions. FUNCTION ANALYSIS: Limit of a function, Continuous functions, derivatives, minima and maxima of a function, inflection points, asymptotes – differential of a function – Taylor’s formula. INTEGRALS: definition and properties, definite and indefinite integrals, geometrical meaning, integral function; computation: immediate integrals, integration methods. Real valued functions in two or more real variables: Calculation of partial derivatives. The detailed program will be published at the end of the semester when the course will be completed.
Prerequisites
High school mathematics: basic algebra – power functions – roots – polynomials - exponential and logarithmic functions – equalities and inequalities – analytic geometry – set theory essentials
Books
A.Guerraggio Matematica, Pearson, 2020 F. Cesarone, M. Corradini, L. Lampariello: Matematica generale, Giappichelli Course materials — lecture slides, handouts written by the instructor, and announcements regarding tutoring sessions (exercises and study groups) — are available at the following link: https://classroom.google.com/c/ODA2MzIzMTM5ODUx?hl=it&cjc=tkzytpkv Exam quizzes are available on the Moodle course Basic Mathematics 2025–26: https://elearning.uniroma1.it/login/index.php
Frequency
Attendance in this course is highly recommended for a deep and complete comprehension of the theoretical topics. The student attending the course lessons has the opportunity to see how the teacher illustrates and comments basic notions and theoretical results, and she/he can participate with questions, during or at the end of the lesson. Attendance and active participation to lessons and practical classes enhances students’ abilities of critical reasoning and learning. It helps the student to understand how a formal argument must be illustrated by a sequence of logical implications. Students who cannot attend the course lessons will be supported by additional material (both theoretical and practical) which will be available in the web pages of the course.
Exam mode
The exam aims to check the theoretical knowledge acquired during the course by the student and the practical ability to use the mathematical tools: to formalize, analyze and solve quantitative problems. In the exam, it is fundamental to verify that the student knows both the theoretical notions and the practical tools, as well as, that she/he has the capacity of arguing and illustrating a result. The exam evaluates two aspects of the student’s abilities: 1) the practical capacity of solving a problem by applying the correct logic and mathematical tools; 2) the theoretical knowledge of such tools with their characteristics and properties. The exam envisages a written test.
Lesson mode
The course is issued in a traditional way, by classroom lessons. Lessons aims mainly to introduce and explaining the formal concepts of the mathematical theory and the quantitative tools which can be used to represent and solve a practical problem. The theoretical notions are defined and characterized rigorously, also explaining the meaning of providing the proof of a result (a theorem, a property, a characterization) through reasoning based on logic and mathematical arguments. Part of the theoretical results presented during the classes are formally verified by proofs. For each theoretical notion a practical application is also provided through the solution of examples. In addition to the theoretical lessons there are also classes focused on the solutions of practical exercises.
Channel 3
DAVIDE PETTURITI Lecturers' profile

Program - Frequency - Exams

Course program
The topics of the course’s lessons are listed in the following. BASICS OF LINEAR ALGEBRA: vectors and matrices, operations with vectors and matrices – linear dependence and independence of vectors, rank of a set of vectors – determinant of a square matrix – rank of a matrix . SYSTEMS OF LINEAR EQUATIONS: Rouché-Capelli’s theorem and Cramer’s theorem – Solution of a system of linear equations – parametric systems of linear equations – homogeneous systems of linear equations. NUMBERS: real numbers and sets of real numbers – majorants, minorants, maxima and minima of a set – intervals – neighborhood of a point – open and closed sets –accumulation points. REAL VALUED FUNCTION IN A SINGLE REAL VARIABLE: function and its Cartesian representation – elementary functions (straight line, parabola, hyperbole, cubical, exponential and logarithmic functions) – sign and monotonicity of a function – inverse function – Power functions, Polynomial and rational function – absolute value – composition of functions. FUNCTION ANALYSIS: Limit of a function, Continuous functions, derivatives, minima and maxima of a function, inflection points, asymptotes – differential of a function – Taylor’s formula. INTEGRALS: definition and properties, definite and indefinite integrals, geometrical meaning, integral function; computation: immediate integrals, integration methods. REAL VALUED FUNCTIONS OF SEVERAL REAL VARIABLES: Calculation of partial derivatives. The detailed program will be published at the end of the semester when the course will be completed.
Prerequisites
The course assumes that the student has basic mathematical notions, treated in every secondary high school. In particular, the algebraic calculus and the solution of equations and inequalities of first and second degree, and fractional.
Books
A. Guerraggio. Matematica. Edizione MyLab Pearson. Other teaching material will be uploaded on the course page in the Moodle: https://elearning.uniroma1.it/course/view.php?id=19825
Frequency
Attendance in this course is highly recommended for a deep and complete comprehension of the theoretical topics. The student attending the course lessons has the opportunity to see how the teacher illustrates and comments basic notions and theoretical results, and she/he can participate with questions, during or at the end of the lesson. Attendance and active participation to lessons and practical classes enhances students’ abilities of critical reasoning and learning. It helps the student to understand how a formal argument must be illustrated by a sequence of logical implications. Students who cannot attend the course lessons will be supported by additional material (both theoretical and practical) which will be available in the web pages of the course.
Exam mode
The exam aims to check the theoretical knowledge acquired during the course by the student and the practical ability to use the mathematical tools: to formalize, analyze and solve quantitative problems. In the exam, it is fundamental to verify that the student knows both the theoretical notions and the practical tools, as well as, that she/he has the capacity of arguing and illustrating a result. The exam evaluates two aspects of the student’s abilities: 1) the practical capacity of solving a problem by applying the correct logic and mathematical tools; 2) the theoretical knowledge of such tools with their characteristics and properties. The exam consists of a written test with an optional oral exam.
Bibliography
Other suggested books: * A. Blasi. Matematica corso base. Balzanelli Editore. * L. Peccati, S. Salsa, M.A. Squellati. Matematica per l'economia e l'azienda. Egea. * A. Attias, P. Ferroni. Introduzione alla attività matematica. CISU Edizioni.
Lesson mode
The course is issued in a traditional way, by classroom lessons. Lessons aim mainly to introduce and explaining the formal concepts of the mathematical theory and the quantitative tools which can be used to represent and solve a practical problem. The theoretical notions are defined and characterized rigorously, also explaining the meaning of providing the proof of a result (a theorem, a property, a characterization) through reasoning based on logic and mathematical arguments. Part of the theoretical results presented during the classes are formally verified by proofs. For each theoretical notion a practical application is also provided through the solution of examples. In addition to the theoretical lessons there are also classes focused on the solutions of practical exercises.
  • Lesson code1013719
  • Academic year2025/2026
  • CourseEconomics and Finance
  • CurriculumEconomia e mercati finanziari
  • Year1st year
  • Semester1st semester
  • SSDSECS-S/06
  • CFU9