IDENTIFYING DATA

2023_24

Subject (*)

PHYSICS

Code

17234013

Study programme

Bachelor's Degree in Computer engineering (2010)

Cycle

1st

Descriptors

Credits

Type

Year

Period

Basic Course

First

Language

Català

Department

Electronic, Electric and Automatic Engineering
Physical and Inorganic Chemistry

Coordinator

FERRÉ BORRULL, JOSÉ

E-mail

lluis.marsal@urv.cat
josep.ferre@urv.cat
francois.lime@urv.cat
xavier.batista@urv.cat
mariadelpilar.montero@urv.cat

Lecturers

MARSAL GARVÍ, LUIS FRANCISCO

FERRÉ BORRULL, JOSÉ

LIME , FRANÇOIS GILBERT MARIE

BATISTA CASANELLES, XAVIER

MONTERO RAMA, MARIA DEL PILAR

Web

http://https://campusvirtual.urv.cat/

General description and relevant information

<div>GENERAL DESCRIPTION OF THE SUBJECT:This subject will be taught in flipped classrooms. That is to say, theoretical classes will be taught online and face-to-face classes will be used to reinforce the more complex theoretical concepts and to carry out the more practical classes. Course about fundamental concepts on Physics related with Information Technologies Engineering </div>

Competences

Type A	Code	Competences Specific
	A2	Have knowledge of taking measurements, calculations, evaluations, valuations, surveys, studies, reports, work plans and other similar studies in IT.
	FB2	Understand and master the basic concepts of fields, waves and electromagnetism, theory of electric circuits, electronic circuits, the physical principles of semiconductors and logic families, electronic and photonic devices, and their application in solving problems inherent in engineering.
Type B	Code	Competences Transversal
	B2	Have knowledge in basic and technological subjects, which gives them the ability to learn new methods and theories, and the versatility to adapt to new situations.
Type C	Code	Competences Nuclear

Learning outcomes

Type A	Code	Learning outcomes
	A2	Measure physical magnitudes. Estimate the error in the results of measurements. Know and apply Coulomb's law. Understand the concept of electrical capacity. Knows how to apply the partnership laws of capacities. Analyse basic DC circuits. Know how to apply the laws of Kirchhoff and Thevenin and Norton theorems to analyze complex circuits. Analyse basic circuits in a permanent sinusoidal system. Understand the operation of basic electronic devices (diodes, LEDs and MOSFETs) Know how to analyse and design basic electronic circuits. Know, apply and design digital circuits such as logic gates or programmable digital circuits.
	FB2	Understand the concepts of electric fields and electric potential. Analyse basic circuits in sinusoidal steady state. Know how to apply the partnership laws of capacities. Know how to apply Kirchhoff's laws and the theorems of Thevenin and Norton to analyze complex circuits Analyze basic circuits in a permanent sinusoidal system Understand the operation of basic electronic devices (diodes, LEDs and MOSFETs) Know how to analyze and design basic electronic circuits Know, apply and design digital circuits such as logic gates or programmable digital circuits Measure physical magnitudes. Estimate errors in measurement results Know and apply the Coulomb Law. Understand the concept of electric field and electric potential Learn about the concept of electrostatic energy Know the characteristics of the drivers Distinguishes a dielectric material from another conductor Understand the concept of electrical capacity Know the basic concepts of electrocinetics. Analyses basic circuits of DC. Know the elements of electrical circuits capable of temporarily storing energy. Understand the concept of electrical circuit transfer function and electrical resonance Know the characteristics of semiconductor materials. Understand the physical principle of electronic devices.
Type B	Code	Learning outcomes
	B2	Measure physical magnitudes. Estimate the error in the results of measurements. Know and apply Coulomb's law. Understand the concepts of electric fields and electric potential. Know the concept of electrostatic energy. Know the characteristics of conductors. Distinguish a dielectric material from another conductor. Know the operating characteristics of the main electronic power devices. Know how to apply the partnership laws of capacities. Know the basic concepts of electrokinetics. Know how to apply the laws of Kirchhoff and Thevenin and Norton theorems to analyze complex circuits. Understand the concepts of electric circuit transfer and electrical resonance function. Know the characteristics of semiconductor materials. Understand the physical principle of electronic devices. Know, apply and design digital circuits such as logic gates or programmable digital circuits.
Type C	Code	Learning outcomes

Contents

Topic	Sub-topic
Electrostatics	Electric Field Electrostatic Energy and Potential Conductor and Dielectric Materials Capacitors
Direct Electric Current	Electric Circuits Kirchhoff Laws Node Voltage method and Grid Current Method Thévenin and Norton Laws
Steady Sinusoidal Regime	Elements with Time Response Transfer Function Resonance
Fundamentals of Semiconductors	Semiconducting Materials Semiconductor Devices Junction Diode and Light Emitting Diode Field-Effect Transistor
Semiconductor Devices Applications	Logical Families with CMOS Technology Logic Programmable Devices

Planning

Methodologies :: Tests

Competences

(*) Class hours

Hours outside the classroom

(**) Total hours

Introductory activities

FB2

Lecture

FB2

Problem solving, exercises in the classroom

FB2

Laboratory practicals

FB2

Previous study

FB2

Personal attention

Mixed tests

FB2

Practical tests

FB2

(*) On e-learning, hours of virtual attendance of the teacher.
(**) The information in the planning table is for guidance only and does not take into account the heterogeneity of the students.

Methodologies

Methodologies

	Description
Introductory activities	Introdution to the Course - Learning Objectives - Methodologies - Laboratory Practice Accomplishment - Grading - Bibliography
Lecture	Explanation of the concepts related with the different course contents.
Problem solving, exercises in the classroom	Practical class about the resolution of excercises related with the course contents.
Laboratory practicals	Practical realization of different laboratory experiments where the different course concepts are applied and where instrumentation and measurement techniques are learnt.
Previous study	Student previous work at home for the subsequent laboratory practice realization.
Personal attention	Professor assistance within official hours

Personalized attention

Description

The student will have the opportunity to receive personalized attention within a published time frame in order to clarify any question it may arise.

Time reserved for individual attention and doubt solving with students. Due to the health emergency, this attention can be carried out through online meetings, previously appointed by e-mail, or with other online tools.