The course aims to introduce students to understanding physical phenomena exploiting the scientific method.
Course Prerequisites
Basic mathematical concepts provided by any kind of high school: algebra, basis of trigonometry, functions, exponential, logarith.
Teaching Methods
The course is based on both lessons and laboratory activities. Lectures are supported by OpenOffice slides that are made available in pdf format on the KIRO moodle platform. Class attendance is strongly recommended. Attendance at the laboratories involves a bonus on the final grade.
Assessment Methods
Written test with multiple choice questions, statements, brief demonstrations, conversion of units of measurement and simple problems already discussed during the lectures.
Texts
The didactic material is primarily made by the slides made available to the students via the Kiro website of the course. For individual study any high school book about classical physics is compliant with the programme. Otherwise one could use these books: - J.S. Walker, Foundations of Physics, ed. Pearson - D.C.Giancoli, Physics (ed. CEA, 2005); - F.Bersani and others, Elements of Physics (ed. Piccin, 2010). Students in difficulty with mathematics: P. Montagna, C. Cattaneo, From Mathematics to Physics (eg CLU Pavia, 2008)
Contents
The fundamental concepts of Physics - necessarily limited in terms of time - are presented in their essential lines in a rigorous manner, while avoiding, as far as possible, heavy formalisms and details. Starting from brief introductory mathematical references (scientific notation, geometry, commonly used functions), we introduce scalar and vector quantities and the physical units in the MKS, cgs and other systems with emphasis on conversions among them. The main principles and laws of classical physics are then presented: kinematics (speed and acceleration, rectilinear motions, circular motion), dynamic and static (Newton's laws, conservation of energy and momentum, gravitational force and weight force, friction, translational and rotational equilibrium, power and efficiency), fluid mechanics (flow, pressure and hydrostatic pressure, continuity equation, Pascal and Archimede principles, laminar and turbulent motion, Bernoulli theorem), thermodynamics (temperature and heat, laws of perfect gases, principles of thermodynamics, heat transmission), electromagnetism (Coulomb force, potential and electric current, Ohm's laws, magnetic field, Lorentz force), waves (wave phenomena, wave propagation law, sound and light, electromagnetic spectrum, light propagation). The explanations are accompanied, as far as possible, by examples and applications in the field of life sciences. The course is completed by laboratory exercises (density and viscosity of a fluid, Ohm's laws, spectroscope).
Course Language
Italian
More information
The students who can benefit from more inclusive teaching methods (see https://portale.unipv.it/it/didattica/servizi-lo-studente/modalita-didattiche-inclusive) can utilize the material and follow the videolectures available on KIRO. They should also get in touch with the professor to schedule online meetings and, if possible, group activities.