Studying at the University of Verona
Here you can find information on the organisational aspects of the Programme, lecture timetables, learning activities and useful contact details for your time at the University, from enrolment to graduation.
Academic calendar
The academic calendar shows the deadlines and scheduled events that are relevant to students, teaching and technicaladministrative staff of the University. Public holidays and University closures are also indicated. The academic year normally begins on 1 October each year and ends on 30 September of the following year.
Course calendar
The Academic Calendar sets out the degree programme lecture and exam timetables, as well as the relevant university closure dates..
Period  From  To 

Semester 1  Oct 2, 2023  Jan 26, 2024 
Semester 2  Mar 4, 2024  Jun 14, 2024 
Session  From  To 

Winter exam session  Jan 29, 2024  Mar 1, 2024 
Summer exam session  Jun 17, 2024  Jul 31, 2024 
Autumn exam session  Sep 2, 2024  Sep 30, 2024 
Session  From  To 

Summer graduation session  Jul 22, 2024  Jul 22, 2024 
Autumn graduation session  Oct 22, 2024  Oct 22, 2024 
December graduation session  Dec 11, 2024  Dec 11, 2024 
Winter graduation session  Mar 19, 2025  Mar 19, 2025 
Period  From  To 

Festa di Ognissanti  Nov 1, 2023  Nov 1, 2023 
Festa dell'Immacolata  Dec 8, 2023  Dec 8, 2023 
Vacanze di Natale  Dec 24, 2023  Jan 7, 2024 
Festività pasquali  Mar 29, 2024  Apr 1, 2024 
Ponte della Festa della Liberazione  Apr 25, 2024  Apr 26, 2024 
Festa del Lavoro  May 1, 2024  May 1, 2024 
Festività del Santo Patrono: San Zeno  May 21, 2024  May 21, 2024 
Festa della Repubblica  Jun 2, 2024  Jun 2, 2024 
Vacanze estive  Aug 12, 2024  Aug 17, 2024 
Exam calendar
Exam dates and rounds are managed by the relevant Science and Engineering Teaching and Student Services Unit.
To view all the exam sessions available, please use the Exam dashboard on ESSE3.
If you forgot your login details or have problems logging in, please contact the relevant IT HelpDesk, or check the login details recovery web page.
Should you have any doubts or questions, please check the Enrollment FAQs
Academic staff
Study Plan
The Study Plan includes all modules, teaching and learning activities that each student will need to undertake during their time at the University.
Please select your Study Plan based on your enrollment year.
1° Year
Modules  Credits  TAF  SSD 

2° Year It will be activated in the A.Y. 2024/2025
Modules  Credits  TAF  SSD 

3° Year It will be activated in the A.Y. 2025/2026
Modules  Credits  TAF  SSD 

Modules  Credits  TAF  SSD 

Modules  Credits  TAF  SSD 

Modules  Credits  TAF  SSD 

Modules  Credits  TAF  SSD 

Legend  Type of training activity (TTA)
TAF (Type of Educational Activity) All courses and activities are classified into different types of educational activities, indicated by a letter.
Physics I with laboratory (2023/2024)
Teaching code
4S02750
Credits
12
Language
Italian
Scientific Disciplinary Sector (SSD)
FIS/01  EXPERIMENTAL PHYSICS
Courses Single
Authorized
The teaching is organized as follows:
Teoria
Laboratorio [Laboratorio 1° turno]
Laboratorio [Laboratorio 2° turno]
Teoria di laboratorio
Learning objectives
The teaching course of Physics I with Laboratory contributes to the achievement of the training objectives of the three years degree in Applied Mathematics by providing:  the basic elements of the scientific method, even with the help of laboratory experiments, in order to show that physics is a quantitative science based on the measurement of physical quantities;  the basic knowledge of classical mechanics (cinematics and dynamics) of the particle, of the particle systems and, partially, of the rigid body;  the guidelines useful for the resolution of exercises and problems of classical mechanics; achievement of the fundamental principles of thermodynamics, calorimetry and thermal conductivity. At the end of the course, the student must demonstrate :  to have adequate abilities to analyse and to abstract typical physical situations of the particle mechanics, of the particle systems, of the rigid body and of thermodynamics;  to be able to produce rigorous proofs, and mathematically formalize problems of the particle mechanics, of the particle systems, ;  to have the ability to build and develop mathematical models for physics and to analyse their application limits.  to be able to set up and perform some simple experiments for the measurement of various physical quantities and the subsequent representation (histograms and graphs) as well as the analysis of the collected data.
Prerequisites and basic notions
The knowledge and mathematical skills typical of the training provided by the upper secondary school are required.
In particular:
 knowing how to classify a quantity as a scalar or vector quantity
 vector calculus: operations between vectors (sum, vector and scalar product), Cartesian representation and decomposition of vectors
 basic notions of trigonometry
 algebraic calculus (operations between monomials and polynomials, powers of polynomials, etc.)  methods of solving equations (and systems of equations) of first and second degree
 elements of differential calculus (derivative and integral operator)
 ability to represent data, relations and functions with formulas, tables, histograms, and / or graphs.
There are NO lessons dedicated to the mathematics topics listed above. Each student must, in case, provide through personal study. Some topics (in particular, vector calculus) will be recalled by the tutor.
NOTE: trigonometry and vector calculation reminder handouts will in any case be made available.
Program
The teaching of PHYSICS I with Laboratory consists of two distinct modules:  Theory module (9 CFU)  Laboratory module (3 CFU)
THEORY MODULE
The THEORY module provides the basic knowledge of classical mechanics and thermodynamics, through derivation of the laws and principles governing the motion of bodies, as well as the elements useful for solving exercises and problems of kinematics and dynamics of the material point, systems of material points, as well as the laws and principles of thermodynamics and calorimetry. The main topics covered in this module are:
KINEMATICS
Kinematics of the material point. Displacement, speed and acceleration. Onedimensional motions. Reference systems. Motion in two and three dimensions (intrinsic and polar coordinate reference system). Transformations of Galileo and relative motions. Principle of classical relativity. Motion of projectiles. Circular motion.
DYNAMICS
Dynamics of the material point. Newton's laws and applications. Forces existing in nature. Periodic motions and oscillations: simple, forced and damped oscillator. Friction and resisting forces. Inertial and noninertial systems. Apparent forces. momentum and momentum. Moment of a force. The momentummomentum theorem. Central forces. Conservative force fields and potential energy. Work and Energy. Principle of conservation of mechanical energy. PARTICLEs SYSTEMS
Dynamics of systems of particles: cardinal equations of systems dynamics. Center of mass reference system. Koenig's theorems for kinetic energy and angular momentum. Newton's law of universal gravitation; the motion of satellites, Kepler's laws. The problem of the two bodies. Elastic and inelastic collisions. Conservation of momentum. Impact dynamics.Introduction to the dynamics of the rigid body.
FLUID MECHANICS
General information on fluids. Pressure. Pressure work in fluids. Stevin's law. Pascal's principle. Applications and examples.
Archimedes' principle.
Motion of a fluid in steady state: flow rate and Bernoulli's theorem. Applications and examples.
THERMODYNAMICS
Temperature and heat. Calorimetry: thermal equilibrium, thermal capacity and specific heats. Mechanical equivalent of calorie. Laws of ideal gases and kinetic theory. The principles of Thermodynamics. The thermodynamic transformations. Thermal and refrigerating machines.
LABORATORY MODULE The Laboratory module intends to provide the essential elements of the experimental method, demonstrating that physics is a quantitative science based on the measurement of physical quantities and on the evaluation of measurement uncertainties due to the resolution of the instrument and the presence of random errors. The main topics covered in this module are  the foundations of the experimental method  the theory of measurement errors  the analysis of experimental data relating to some simple experiments (such as the measurement with different length instruments, of the period of oscillation of a pendulum simple, the verification of the law of elastic elongation).
Bibliography
Didactic methods
The teaching methods of the teaching of Physics I with Laboratory are differentiated for the two modules.
THEORY MODULE
The Theory module is organized in theory lessons (7 credits of 8 hours) and exercises (2 credits of 12 hours).
To facilitate the student in understanding and learning the laws and principles dealt with, phenomenology will be systematically used during the lectures, also through the use of videotutorials. The exercises are fundamental for the understanding and application of the laws and notions dealt with in the theory lessons. During the hours of practice, exercises and mechanical problems (kinematics and dynamics) will be solved in order to allow the student to face and pass the written test of the final exam. The hours of exercises will always follow the hours of theory trying to give a continuity of deepening and understanding of the various parts of the program.
Normally the lessons are held in the classroom using both the traditional blackboard and slides and / or texts. Short films, graphics, drawings and other useful material to facilitate the understanding of the topics covered will be used by the teacher. Students are expected to actively participate in the lessons through questions, discussion stimuli, requests for clarifications, as well as suggestions for solving the exercises.
In addition to this, there is a tutoring activity (extra hours) delivered frontally in the classroom and / or through video lessons, dedicated to reminders and complements as well as to the resolution of exercises and physics problems, in addition to the hours of practice by the professor.
LABORATORY MODULE
The Laboratory module is divided into a part of classroom lectures on the experimental method and on the theory of measurement errors (UL Theory of Laboratory) and a second part (UL Laboratory) of experiences carried out by students in the Cyber Physics Laboratory divided in two shifts for logistical reasons. Attendance is required for the latter. The laboratory sessions consist in the execution of simple experiments that involve the measurement of physical quantities, the representation and analysis of the collected data and the treatment of errors, as well as the elaboration of a report with the discussion of the results of the experiment carried out.
Learning assessment procedures
The exam of the Physics I course with Laboratory consists in verifying the distinct knowledge for the two modules of Theory and Laboratory, for each of which an independent evaluation out of thirty is expressed, which will contribute to determining the overall grade according to the weight criterion. proportional to the number of credits of the relative module.
THEORY MODULE
The exam consists in passing a written test and an oral test, which can only be accessed after passing the written test. The written test is passed only if the reported grade is not less than 18/30. The examination procedures for the theory module are the same for attending and nonattending students. The written test is considered valid for two successive sessions, to allow the student to prepare and organize the oral test according to his own study program. In any case, the oral interview can only be taken after having successfully passed the Laboratory module.
LABORATORY MODULE
For the laboratory module, an ongoing group report and a final group report on the simple pendulum experiment will be evaluated. In addition, an individual test with multiple choice will be carried out at the end of the course which will evaluate the learning status of what has been done in the laboratory theory.
Evaluation criteria
The two exams, written and oral, are intended to ascertain the level of knowledge acquired by the student in relation to the Theory module of the teaching of Physics I with Laboratory. Written exam consists in solving some typical problems of mechanics (of the material point, of the systems of material points), which involve the application of laws and derived principles (stated and demonstrated) during the lectures and systematically recalled during the exercises in classroom. The oral exam consists of an interview with questions on the program carried out in the classroom relating to the derivation of physical laws and the demonstration of the theorems and conservation principles of the dynamics of the material point, systems of material points, and the laws and principles of thermodynamics. and calorimetry. For the laboratory part, the group report on the pendulum experience will be evaluated considering the skills acquired in terms of presentation of the experiment, representation and analysis of experimental data (through histograms, graphs, statistical functions, interpolations ...), discussion of the results with particular attention to random and systematic errors, as well as the critical comparison between different experimental procedures and measuring instruments. The individual test will verify the student's learning on the laboratory theory module (instruments and units of measurement, error theory, statistical data analysis).
Criteria for the composition of the final grade
For the theory module there is a cumulative evaluation obtained by calculating the arithmetic average of the evaluations reported in the two exams, written and oral, passed. For the laboratory module there is a cumulative evaluation obtained by making the weighted average of the mark of the group report (2/3) and of the final individual test (1/3).
The overall evaluation of the exam of the course of Physics I with laboratory will result from the weighted average, on the number of CFU of the module, of the marks obtained in the evaluation tests provided for each of the two modules: Theory (9/12) and Laboratory (3 / 12).
Exam language
italiana
Type D and Type F activities
Le attività formative di tipologia D sono a scelta dello studente, quelle di tipologia F sono ulteriori conoscenze utili all’inserimento nel mondo del lavoro (tirocini, competenze trasversali, project works, ecc.). In base al Regolamento Didattico del Corso, alcune attività possono essere scelte e inserite autonomamente a libretto, altre devono essere approvate da apposita commissione per verificarne la coerenza con il piano di studio. Le attività formative di tipologia D o F possono essere ricoperte dalle seguenti attività.
1. Insegnamenti impartiti presso l'Università di Verona
Comprendono gli insegnamenti sotto riportati e/o nel Catalogo degli insegnamenti (che può essere filtrato anche per lingua di erogazione tramite la Ricerca avanzata).
Modalità di inserimento a libretto: se l'insegnamento è compreso tra quelli sottoelencati, lo studente può inserirlo autonomamente durante il periodo in cui il piano di studi è aperto; in caso contrario, lo studente deve fare richiesta alla Segreteria, inviando a carriere.scienze@ateneo.univr.it il modulo nel periodo indicato.
2. Attestato o equipollenza linguistica CLA
Oltre a quelle richieste dal piano di studi, per gli immatricolati dall'A.A. 2021/2022 vengono riconosciute:
 Lingua inglese: vengono riconosciuti 3 CFU per ogni livello di competenza superiore a quello richiesto dal corso di studio (se non già riconosciuto nel ciclo di studi precedente).
 Altre lingue e italiano per stranieri: vengono riconosciuti 3 CFU per ogni livello di competenza a partire da A2 (se non già riconosciuto nel ciclo di studi precedente).
Tali cfu saranno riconosciuti, fino ad un massimo di 6 cfu complessivi, di tipologia F se il piano didattico lo consente, oppure di tipologia D. Ulteriori crediti a scelta per conoscenze linguistiche potranno essere riconosciuti solo se coerenti con il progetto formativo dello studente e se adeguatamente motivati.
Gli immatricolati fino all'A.A. 2020/2021 devono consultare le informazioni che si trovano qui.
Modalità di inserimento a libretto: richiedere l’attestato o l'equipollenza al CLA e inviarlo alla Segreteria Studenti  Carriere per l’inserimento dell’esame in carriera, tramite mail: carriere.scienze@ateneo.univr.it
3. Competenze trasversali
Scopri i percorsi formativi promossi dal TALC  Teaching and learning center dell'Ateneo, destinati agli studenti regolarmente iscritti all'anno accademico di erogazione del corso https://talc.univr.it/it/competenzetrasversali
Modalità di inserimento a libretto: non è previsto l'inserimento dell'insegnamento nel piano di studi. Solo in seguito all'ottenimento dell'Open Badge verranno automaticamente convalidati i CFU a libretto. La registrazione dei CFU in carriera non è istantanea, ma ci saranno da attendere dei tempi tecnici.
4. CONTAMINATION LAB
Il Contamination Lab Verona (CLab Verona) è un percorso esperienziale con moduli dedicati all'innovazione e alla cultura d'impresa che offre la possibilità di lavorare in team con studenti e studentesse di tutti i corsi di studio per risolvere sfide lanciate da aziende ed enti. Il percorso permette di ricevere 6 CFU in ambito D o F. Scopri le sfide: https://www.univr.it/clabverona
ATTENZIONE: Per essere ammessi a sostenere una qualsiasi attività didattica, incluse quelle a scelta, è necessario essere iscritti all'anno di corso in cui essa viene offerta. Si raccomanda, pertanto, ai laureandi delle sessioni di dicembre e aprile di NON svolgere attività extracurriculari del nuovo anno accademico, cui loro non risultano iscritti, essendo tali sessioni di laurea con validità riferita all'anno accademico precedente. Quindi, per attività svolte in un anno accademico cui non si è iscritti, non si potrà dar luogo a riconoscimento di CFU.
5. Periodo di stage/tirocinio
Oltre ai CFU previsti dal piano di studi (verificare attentamente quanto indicato sul Regolamento Didattico): qui informazioni su come attivare lo stage.
Verificare nel regolamento quali attività possono essere di tipologia D e quali di tipologia F.
Insegnamenti e altre attività che si possono inserire autonomamente a libretto
years  Modules  TAF  Teacher 

1° 2° 3°  Algorithms  D 
Roberto Segala
(Coordinator)

1° 2° 3°  Basis of general chemistry  D 
Silvia Ruggieri

1° 2° 3°  Genetics  D 
Massimo Delledonne
(Coordinator)

1° 2° 3°  Introduction to quantum mechanics for quantum computing  D 
Claudia Daffara
(Coordinator)

1° 2° 3°  Introduction to Robotics for students of scientific courses.  D 
Andrea Calanca
(Coordinator)

1° 2° 3°  Web and mobile app design using react and react native  D 
Graziano Pravadelli
(Coordinator)

1° 2° 3°  Firmware development with bluetooth low energy (BLE) protocol and freertos operating system  D 
Franco Fummi
(Coordinator)

years  Modules  TAF  Teacher 

1° 2° 3°  Algebraic Geometry  F 
Rosanna Davison Laking
(Coordinator)

1° 2° 3°  Algorithms  D 
Roberto Segala
(Coordinator)

1° 2° 3°  Artificial intelligence  D 
Alessandro Farinelli
(Coordinator)

1° 2° 3°  Introduction to Robotics for students of scientific courses.  D 
Andrea Calanca
(Coordinator)

1° 2° 3°  LaTeX Language  D 
Enrico Gregorio
(Coordinator)

1° 2° 3°  Python programming language  D 
Carlo Combi
(Coordinator)

1° 2° 3°  Organization Studies  D 
Serena Cubico
(Coordinator)

1° 2° 3°  Scientific Programming  F 
Pietro Sala
(Coordinator)

1° 2° 3°  Programming Challanges  D 
Romeo Rizzi
(Coordinator)

years  Modules  TAF  Teacher 

1°  Subject requirements: mathematics  D 
Franco Zivcovich
(Coordinator)

Career prospects
Module/Programme news
News for students
There you will find information, resources and services useful during your time at the University (Student’s exam record, your study plan on ESSE3, Distance Learning courses, university email account, office forms, administrative procedures, etc.). You can log into MyUnivr with your GIA login details: only in this way will you be able to receive notification of all the notices from your teachers and your secretariat via email and soon also via the Univr app.
Graduation
Documents
Title  Info File 

1. Come scrivere una tesi  pdf, it, 31 KB, 29/07/21 
2. How to write a thesis  pdf, it, 31 KB, 29/07/21 
5. Regolamento tesi (valido da luglio 2022)  pdf, it, 171 KB, 17/02/22 
List of theses and work experience proposals
theses proposals  Research area 

Formule di rappresentazione per gradienti generalizzati  Mathematics  Analysis 
Formule di rappresentazione per gradienti generalizzati  Mathematics  Mathematics 
Proposte Tesi A. Gnoatto  Various topics 
Mathematics Bachelor and Master thesis titles  Various topics 
THESIS_1: Sensors and Actuators for Applications in MicroRobotics and Robotic Surgery  Various topics 
THESIS_2: Force Feedback and Haptics in the Da Vinci Robot: study, analysis, and future perspectives  Various topics 
THESIS_3: CableDriven Systems in the Da Vinci Robotic Tools: study, analysis and optimization  Various topics 
Stage  Research area 

Internship proposals for students in mathematics  Various topics 
Attendance
As stated in the Teaching Regulations for the A.Y. 2022/2023, except for specific practical or lab activities, attendance is not mandatory. Regarding these activities, please see the web page of each module for information on the number of hours that must be attended onsite.
Please refer to the Crisis Unit's latest updates for the mode of teaching.