Foundations of Complementary Mathematics

Course objectives

General objectives Addressing the study of varied mathematical content, favoring an "extensive" approach that highlights the links between content and other parts of mathematics and science, with particular attention to the historical evolution of concepts and their placement in a cultural frame that may help the future mathematics teacher to integrate the educational role of teaching mathematics more closely with that of other subjects. Specific objectives Knowledge and understanding: At the end of the course, students who have passed the exam will have the basic knowledge and methodological tools to place mathematics teaching in a wider cultural context that enriches its educational value. Apply knowledge and understanding: At the end of the course, students who have passed the exam will be able to face the reading and understanding of the general parts of mathematical articles of historical and cultural relevance, in particular of the nineteenth century (in one of the foreign languages ​​known to the student or in the translation into Italian) and to compare the methods used by their authors with those of contemporary mathematics which they learned about during their three-year degree studies. They will be able to appreciate the didactic value of a historical approach to mathematics and to apply it to the planning of didactic teaching paths in the school. They will have developed a critical and informed attitude towards the applications of mathematics to social sciences and the modeling of complex systems. Critical and judgmental skills: The student will receive the necessary bases to appreciate the historical development of the main concepts relating to the foundations of non-Euclidean geometry, differential and projective geometry, the idea of ​​function and the calculation of probabilities and the relationships between the topics covered in this course and those covered in other courses (of the three-year degree, in particular the History of Mathematics course, and of the master's degree, such as the course of Elementary Mathematics from a higher point of view and that of Fundamentals of Mathematics, Real Analysis and Differential Geometry). Communication skills: Ability to expose the contents in the oral part of the verification and to summarize the knowledge acquired in the development of the topic proposed in the written test. Particular attention will be devoted to developing the ability to communicate correctly, even if incomplete, a non-elementary mathematical content by relying on digital tools, heuristic analogies, examples and significant and illuminating exercises and to critically address the siege of available information. online or in libraries. Learning ability: the knowledge acquired will allow the student to develop a critical attitude, attentive to the historical and conceptual development, of mathematical ideas and their cultural value, also in relation to the other sciences and society.

Channel 1
ENRICO ROGORA Lecturers' profile

Program - Frequency - Exams

Course program
Three of the following topics will be covered. First topic: the development of geometry in the first half of the 19th century. Second topic: the relationship between mathematics, science and pseudoscience. Third topic, the historical evolution of some of the fundamental ideas of the analysis. Fourth topic, the historical evolution of some of the fundamental ideas of algebra. Part of the teaching will be carried out in the computer laboratory, where, with the use of R, GeoGebra and Mathematica software, the topics covered in the course will be illustrated, paying particular attention to analyzing the historical process and the connection with important problems relating to the teaching/learning mathematics.
Prerequisites
This course requires a basic knowledge of the main topics of the courses of mathematics of the Laurea Triennale. This knowledge is necessary.
Books
First part: Chapters 2 e 3 if the notes of the course Corso monografico di storia della matematica (Storia della geometria non euclidea e storia della geometria differenziale); Lobachewsky, theory of parallels Bolyai Appendix Beltrami, “saggio di interpretazione della geometria non euclidea”. Second Part: Rogora, “un’analisi critica del modello di Rasch e delle sue applicazioni all’analisi dei test Invalsi”. Sylos-Labini F. Rischio e Previsione. Cosa può dirci la scienza sulla crisi, Bari, Editori Laterza. Third part: Italian translation of “Le concept de fonction et le développement de l’analyse”, di Amy Dahan-Dalmedico e Jeanne Peiffer, in Une Histotoire des mathématiques.
Teaching mode
Traditional lessons, reading and discussion of excerpts of original writings in italian translation, lab session in computer laboratory with software GeoGebra, Mathematica and R.
Frequency
In presence
Exam mode
The exam aims to evaluate learning through a written test (consisting of a dissertation on an assigned topic) and an oral test (consisting in the discussion of the most relevant topics illustrated in the course and in the commented reading of one or more original passages in translation Italian proposed in class). The written test will last about two hours. To pass the exam it is necessary to achieve a grade of not less than 18/30. The student must demonstrate that he has acquired sufficient knowledge of the topics, that he has understood the general historical framework within which to place the development of the mathematical ideas presented in class, that he is able to read and comment on the original passages presented in class, in Italian translation and to be able to use the digital tools presented in the course to correctly present mathematical contents related to secondary school programs. To achieve a score of 30/30 cum laude, the student must demonstrate that they have acquired an excellent knowledge of all the topics covered during the course, that they know and know how to comment on the original passages in Italian translation and that they are able to connect the all in a logical and coherent way and to know how to use the digital tools presented in the course to correctly expose mathematical contents related to secondary school programs and three-year degree courses.
Lesson mode
Traditional lessons, reading and discussion of excerpts of original writings in italian translation, lab session in computer laboratory with software GeoGebra, Mathematica and R.
  • Lesson code10595856
  • Academic year2024/2025
  • CourseMathematics
  • CurriculumDidattica e storia
  • Year1st year
  • Semester2nd semester
  • SSDMAT/04
  • CFU9
  • Subject areaFormazione teorica avanzata