APPLIED PHYSISCS I
Learning outcomes of the course unit
The course has been designed to provide an introductory basis for other major degree fields, as well as the physical phenomenology on which they are based or which they make frequent use of. The course will also provide the conceptual basis for understanding a number of major technologies that are used with increasing frequency, such as: centrifuges, endoscopes, microscopes, transducers for ultrasound equipment, laser systems, radiology equipment and NMR, radiation detectors, etc. As its final, but perhaps most important, goal, the course has been designed to stimulate students to become more familiar with certain common concepts, but which are not always sufficiently explained in previous study, such as: mechanical action between bodies in contact, exertion and energy in action, dynamic aspects resulting from elastic force and impact, friction and thermal and thermodynamic aspects, static and dynamic properties of gaseous and liquid fluids, light and its manifestations, including in relation to the structure of the eye and its physical defects; fundamentals of electrical, magnetic and nuclear phenomena, the laws that govern potential and current; electromagnetic and nuclear radiation, perturbations induced in means passed through and aspects of detection and control.
Course contents summary
Fundamental Laws of Dynamics
Vectors and scalars. Units, dimensions. Velocity and acceleration. Newton's laws.
Newton's law of gravitation. Acceleration of gravity. Difference between mass and
weight. Work, power and energy. Types of energy: thermal, chemical, potential,
kinetic, nuclear. Energy conservation law. Friction. Static and dynamic friction.
Force and moment of a force. Centre of gravity, barycentre. Equilibrium state of a
rigid body. Levers and applications to the human body. Structure of solids. Elastic
properties of a body, Young's modulus. Elastic behaviour of blood vessels and
Fluids and Fluid Dynamics
Pressure, Stevino’s law. Pascal’s law. Archimede's principle. Torricelli barometer.
Flow rate. Characteristics of an ideal fluid. Bernoulli's theorem. Applications of
Bernoulli's theorem to blood circulation. Real fluids. Laminar flow. Turbulent flow.
Reynolds number. Blood pressure measurement. Surface tension and capillarity.
Characteristics of waves, the wave equation, superposition and interference of waves, stationary waves. Sound waves, the ear and hearing, interference of sound, beats.
Ultrasound. Doppler effect. The Doppler echo in diagnostics: an application of the
Thermology and thermodynamics: Thermal dilation -Temperature and heat - Laws of gas and absolute temperature - Equation of state of ideal gases and approximation for real gases - Overview of the kinetic theory of gases - Specific heats –Change of state and latent heat - Heat propagation mechanisms -First and second principle of thermodynamics -Thermal machines and efficiency - Entropy and disorder.
Bersani, Bettati, Biagi, Capozzi, Feroci, Lepore, Mita, Ortalli, Roberti, Viglino, Vitturi: Fisica biomedica,
Ed. Piccin Nuova Libraria (Padova).
Scannicchio: Fisica Biomedica,
Ed. EdiSES (Napoli).
Giambattista, McCarthy Richardson, Richardson:
Ed. McGraw-Hill (Milano).
Halliday et al:
Elementi di Fisica
Ed. Ambrosiana (Milano).
Assessment methods and criteria