TECHNICAL PHYSICS (ENVIRONMENTAL)

Course objectives

TECHNICAL PHYSICS (ENVIRONMENTAL) The course provides notions on the fundamental physical processes characterizing the various aspects of the mutual actions between man and the environment, such as energy management and the control of pollution and thermal, acoustic, and visual comfort, involving the entire perceptual system. The course is mainly theoretical in nature.

Channel 1
LORENZO MARIO PASTORE Lecturers' profile

Program - Frequency - Exams

Course program
➢ Heat Transfer: 1.1 Conduction Thermal fields. Fourier's postulate. General conduction equation. Thermal conductivity coefficients and thermal inertia. Indefinite flat wall with one or more layers in stationary regime. 1.2 Convection Definition. Forced convection and natural convection. Schematic of the phenomenon. Definition of the heat exchange coefficient. Dimensional analysis. Outline of the index method. Dimensionless parameters, their meaning. Determination of the heat exchange coefficient in the main cases of thermal convection. 1.3 Radiation Radiant energy. Characteristic quantities of radiant energy. Kirchhoff's principle. Black body. Planck, Stefan-Boltzmann and Wien's laws. Gray bodies. Heat transfer by radiation between two bodies. Form factor. Heat transfer between two bodies when the radiant power emitted by them strikes the bodies entirely. The radiation coefficient. Linear approximation. Greenhouse effect. 1.4 Adduction Definition. Adduction coefficient. 1.5 Complex heat transmission phenomena Heat transmission in steady state between two fluids separated by a flat partition. Transmittance. Thermal resistance of the cavity. Opaque wall subjected to solar radiation. Glass walls. ➢ Thermodynamics: 2.1 Thermodynamics reminders Thermodynamic systems. Thermodynamic equilibrium. Equation of state. Thermodynamic transformations. First and Second Law of Thermodynamics. Reversible and irreversible transformations. Carnot cycle. Entropy. 2.2 Open and closed thermodynamic systems Mass and energy balance. Energy equation. Continuity equation. Work in open systems. Saturated vapor compression and absorption refrigeration machines (notes). 2.4 Introduction to psychrometry Gaseous mixtures. Moist air. Associated humidity and relative humidity. Dew point. Psychrometric diagram. Transformations of moist air. Psychrometer. Surface and interstitial condensations. ➢ Lighting technology: 5.1 Photometry Vision phenomena. Visibility curve. Photometric quantities and their units of measurement. 5.2 Light sources Classification of light sources and characteristic parameters. Lighting fixtures. Geometry of sources. Incandescent lamps, gas discharge lamps and LEDs. Lamp efficiency, the photometric solid, color temperature and color rendering. 5.3 Interior lighting Requirements for lighting in enclosed spaces. Natural light. Design criteria for artificial lighting. Utilization coefficient method. ➢ Acoustics: 4.1 Fundamental acoustic quantities, sound fields and sound propagation. Sound pressure. Acoustic intensity. Sound energy density. Pure sounds and complex sounds. Sound fields. Decibel scale. Acoustic spectra. Composition of sound levels. Reflection, refraction, diffraction, absorption of sounds. 4.2 Psychoacoustics Audience sensations. Normal audiogram. Phon scale. Notes on the subjective evaluation of complex sounds. 4.3 Acoustics of confined spaces Reverberation. Reverberation time. Notes on auditory masking. Expression of sound energy density in a confined space. Sabine's relation. Sound-absorbing materials. Notes on the general design criteria for confined spaces. 4.4 Sound insulation Sound insulation power. Acoustic insulation. The law of mass.
Prerequisites
It is suggested to have knowledge about Physics and Mathematics to fully understand the topics dealt with by the course
Books
Main book is: Yunus A. Çengel, Giuliano Dall'Ò, Luca Sarto. Fisica tecnica ambientale. Con elementi di acustica e illuminotecnica. Editore: McGraw-Hill Education. Some slides will be shared with the students and they represents part of the didactic material.
Frequency
not mandatory
Exam mode
The exam includes a written test and an oral exam. The written test consists in solving an exercise on one of the topics addressed in class; The oral test consists of a discussion of no longer than 30 minutes aimed at verifying: - the knowledge of the theoretical methodological content of the course; - the correct presentation of the applications proposed in the course; - autonomy in proposing the most appropriate approach for each scope. The oral exam will also test the student communication skills and his autonomy in the organization and exposure of the theoretical topics. The final evaluation is carried out by the Commission as the average value of the written test and the oral exam. It is noted that both oral and written tests must result at least sufficient in order to pass the exam. For Erasmus students, it is possible to have the oral test in English. If requested at least one week in advance also the written test can be translated to English.
Lesson mode
In the classroom, lecture with the possibility of slides or supporting exercises.
Channel 2
Channel 3
DANIELE GROPPI Lecturers' profile

Program - Frequency - Exams

Course program
The Course will cover the following topics: - Basis of energy analysis and thermodynamics (25 hours) - Heat Trasnfer (40 hours) - Ligthing Systems (10 hours) - Renewable energy (15 hours) - Exercise (10 hours)
Prerequisites
It is suggested to have knowledge about Physics and Mathematics to fully understand the topics dealt with by the course
Books
Main book is: Yunus A. Çengel, Giuliano Dall'Ò, Luca Sarto. Fisica tecnica ambientale. Con elementi di acustica e illuminotecnica. Editore: McGraw-Hill Education. Some slides will be shared with the students and they represents part of the didactic material.
Frequency
Attendance is optional but is strongly recommended
Exam mode
The exam includes a written test and an oral exam. The written test consists in 10 multiple questions and 2 exercises on topics addressed in class; The oral test consists of a discussion of no longer than 30 minutes aimed at verifying: - the knowledge of the theoretical methodological content of the course; - the correct presentation of the applications proposed in the course; - autonomy in proposing the most appropriate approach for each scope. The oral exam will also test the student communication skills and his autonomy in the organization and exposure of the theoretical topics. The final evaluation is carried out as the average value of the written test and the oral exam. Both the written and the oral exams must be at least sufficient to pass the exam.
Lesson mode
The course will happen in a traditional way with classroom lessons with the use of power point presentation
  • Lesson code1025854
  • Academic year2025/2026
  • CourseArchitecture
  • CurriculumSingle curriculum
  • Year1st year
  • Semester2nd semester
  • SSDING-IND/11
  • CFU8