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Physics II

Code: 105036
Credits: 6
2026/2027
Degree programme Type Course
Chemistry FB 1

Contact lecturer

Name :
Antonio Pérez-Calero Yzquierdo
Email :
antonio.perezcalero@uab.cat

Group languages

You can consult this information at the end of the document.

Prerequisites

There are no official prerequisites. However, it is assumed that the student has acquired the basic knowledge of the Physics and Mathematics subjects taught in high school. Students who have not studied Physics in high school are strongly advised to familiarize themselves with the concepts of the subject's syllabus (wave phenomena and electromagnetism) through textbooks, materials, and preparatory courses in Physics and Mathematics for Science students.

Objectives

The aim of this course is that students know the basic principles of Nature, from the smallest (atomic nucleus and elementary particles) to the largest (planets and stars), and also that students will be able to apply them and describe physical phenomena in a quantitative and qualitative way. Students will learn the necessary tools to understand the material's structure, concepts, principles and research exploration in Chemistry. Also, students will aquire the critical thinking and the ability to acquire new knowledge in an autonomous way.

Learning outcomes

  • CM06 (Interpret data resulting from experiments or models to propose solutions to problems in the field of general physics.) Interpret data resulting from experiments or models to propose solutions to problems in the field of general physics.
  • CM07 (Work together as a team during practical sessions in general physics laboratories.) Work together as a team during practical sessions in general physics laboratories.
  • KM07 (Describe the characteristics of wave motion and the general wave equation.) Describe the characteristics of wave motion and the general wave equation.
  • KM08 (List Newton's laws on the motion of particles.) List Newton's laws on the motion of particles.
  • KM09 (Identify the principles and methods of electricity and magnetism.) Identify the principles and methods of electricity and magnetism.
  • KM10 (Describe the electromagnetic nature of light and its relationship to Maxwell's laws.) Describe the electromagnetic nature of light and its relationship to Maxwell's laws.
  • SM08 (Communicate fundamental physical information using appropriate scientific language, and making accurate use of the magnitudes and units associated with basic physical concepts.) Communicate fundamental physical information using appropriate scientific language, and making accurate use of the magnitudes and units associated with basic physical concepts.
  • SM09 (Apply the theory, principles, and methods of general physics to solve simple problems and to explain experimental phenomena.) Apply the theory, principles, and methods of general physics to solve simple problems and to explain experimental phenomena.
  • SM10 (Accurately analyse experimental data and observations in the field of Physics, using statistical and graphical methods to interpret results and draw conclusions.) Accurately analyse experimental data and observations in the field of Physics, using statistical and graphical methods to interpret results and draw conclusions.

Contents

Waves (I). Waves in motion


1. Introduction

2. Wave pulses

3. Harmonic waves

4. Velocity of propagation

5. Energy of a wave

6. Doppler effect


Waves (II). Interferences


1. Interfetence of waves

2. Standing waves

3. Thin-film interference

4. Bragg difraction

5. Young experiment

6. Difraction grating

7. Difraction


Electrostatic field. Capacitors


1. Electric charge and electromagnetic interaction

2. Electric fields

3. Energy and electrostatic potential

4. Electric dipoles

5. Gauss's law for the electric field and applications

6. Dielectric and conductive materials. Electrostatic equilibrium

7. Capacitors


Electric current


1. Current intensity

2. Ohm's law. Electric resistance

3. Batteries. Electromotive force

4. Resistance combinations

5. Direct Current Circuits

6. Charge and discharge of a capacitor


Magnetic field


1. Magnetic field. Properties

2. Movement of a point charge in a magnetic field

3. Lorentz force. Applications

4. Magnetic forces on currents. magnetic dipole

5. Magnetic field sources

6. Forces between currents.

7. Ampère's Law and applications

8. Magnetic properties of matter


Magnetic induction


1. Magnetic induction. Faraday-Lenz law

2. Self-induction and mutual induction between circuits

3. Magnetic energy accumulated in inductors. Inductor charge and discharge

4. LC oscillating circuits

5. AC generator

6. Electrical energy transmission. Transformers


Electromagnetism


1. Ampere-Maxwell Law

2. Maxwell's laws in vacuum

3. Electromagnetic radiation. Wave nature of light

4. Properties of light (reflection, refraction and polarization)

5. Electromagnetic spectrum

Learning activities and methodology

Title Hours ECTS Learning outcomes
In-class practicals and problems 13 0.52 CM07, SM09, SM10
Team work 26 1.04 CM06, CM07, SM09
Theory lectures 36 1.44 KM07, KM09, KM10, SM08
Individual study and exercises 50 2 CM06, KM07, KM09, KM10

The course consists of guided activities, theory classes, and supervised activities, involving the resolution of practical cases and in-class problems, which are distributed throughout the course in an approximate ratio of 3 to 1.


Theory lectures:

The professor will lecture on the contents of the course using both the blackboard and multimedia material, which will be available for students in the Campus Virtual. In order to profit theory lectures to the maximum, students should prepare the sessions in advance making use of this material and the texts included in the bibliography. Moreover, students will be encouraged to explore deeper aspects of the topics being studied by means of additional material (websites, videos, applets, etc) that will be available also in the Campus Virtual. The professor will solve some practical cases to exemplify the theory. Critical participation of students during classes will be encouraged and valued.


In-class practicals and problems:

Practical cases will be worked on by applying the theory to problems selected from a list that the student will have available on the Campus Virtual. For the sessions to be useful and participatory, it is strongly recommended that students have worked on these problems prior to the classes.









Annotation: within the schedule set by the centre or degree programme, 15 minutes of one class will be reserved for students to evaluate their lecturers and their courses or modules through questionnaires.

Assessment

Continuous assessment activities

Title Weight Hours ECTS Learning outcomes
Partial exams 80% 9 0.36 KM07, KM08, KM09, KM10, SM08, SM09
Continuous assessment activities 20% 16 0.64 CM06, CM07, SM08, SM09, SM10

Continuous assessment:

The teaching and evaluation of this course will be based on the concept of continuous assessment. The emphasis is therefore placed on the continuous work by students, as well as on providing them with tools that allow them to evaluate their own level of acquisition of the competencies and contents of the course. For this purpose, continuous assessment activities will be carried out, such as questionnaires on theoretical concepts, class activities, submission of advanced problems, etc. These activities will also serve as evidence of the work done and for the student's grading.


Qualification:

The content of the subject will be taught in two blocks (midterms) separated by the first evaluation period around Easter. Passing the course requires passing both blocks separately. for which a sufficient degree of achievement and progress by the student must be demonstrated in each of them.


In each midterm, an exam will be held, which, together with the continuous assessment activities, will determine your grade. The grade of each midterm will be calculated as follows: 80% exam grade + 20% continuous assessment activities.

  • The student's continued work activities will be evaluated according to their degree of compliance and quality. Failure to complete all the activities or to deliver them in general with a very poor result will imply a zero in this category.
  • To pass a block, the exam grade must be equal to or greater than 4.


The final grade for the course is obtained as the average of the grades from both independently passed blocks. Average will not be applied having failed one of the blocks.


Supplementary exam:

In the event that the student does not pass one or both midterms, they will have the option of taking a supplementary exam covering the content of the failed block or blocks. As the exam replaces the complete midterm grade, it is mandatory to pass this exam (grade equal to or greater than 5) to consider the subject passed. In order to participate in this retake exam, the student must have participated in continuous assessment activities that equal two thirds of the total grade.


Improving grades:

Students may take the supplementary exam also in order to improve the course grade. The grade that the students have already achieved on the content on which they want to be reexamined will be kept.


Not assessable

The subject will be marked as \"Not assessable\" when the student has not participated in any of the evaluation activities of one of the midterms of the subject (exams and continuous work activities).


Regarding the exams:

  • Each exam will consist of a questionnaire about the theoretical concepts of the subject, and a set of exercises that the student must solve.
  • To attend any of the exams it is mandatory to carry an identification document (ID or university card).


Use of AI:

In this subject, the use of Artificial Intelligence (AI) technologies will be allowed solely as a study support resource (searching for bibliography, additional material, or practical cases), never in the resolution of the proposed continuous assessment tasks. The evaluation will focus on the understanding of the Physics concepts covered during the course and their application to solving problems, so it is not appropriate to use AI to solve the tasks that should lead to this result. Therefore, a final result lacking a reasoned development, even if correct, will not be considered valid. In general, any work that includes AI-generated fragments will be considered a breach of academic honesty and may result in a partial or total penalty in the activity, as well as major sanctions in severe cases.


Academic Fraud and Irregularities in Assessment Acts

The commission of any irregularity in an assessment act (academic fraud, plagiarism, or misuse of AI) that could lead to a significant variation in the grade implies that this act will be graded with a 0. In the case of exams, using unauthorized methods (copying or communicating with another student, the use of mobile phones or smartwatches, or any AI technology, etc.) will be penalized, likewise if multiple irregularities occur in the assessment acts of the same subject. In these cases, the final grade for this subject is 0. Regardless of this, a disciplinary process may be initiated against the student who commits any of these irregularities.


Single Assessment:

This subject does not provide for the single assessment system.


Bibliography

Main book on theory and exercises:

P. A. Tipler y G. Mosca. \"Física para la ciencia y la tecnología\". Reverté. Barcelona. (2010, 6ª ed.)


Additional books:

D. E. Roller, R. Blum. Mecánica, Ondas y Termodinámica (vol. 1).Reverté. Barcelona (1986)

F. W. Sears, M.W. Zemansky, H.D. Young. Física universitaria. Addison-Wesley (1986)

S. Burbano de Ercilla, E. Burbano García, G. Diaz de Villegas Blasco. Física general: problemas. Tébar 27ª ed. (1991).

F. A. González. La física en problemas. Madrid, Tebar-Flores (1997)

J. Aguilar Peris, J. Casanova Col. Problemas de Física General. 4ª ed. Madrid, editorial Alhambra (1981)

D. Jou, J.E. Llebot, C. Pérez-García. Física para las ciencias de la vida. McGraw-Hill (2009, 2ª ed.)


Additional content:

Additional texts will be provided to the student via the subject's area in the Virtual Campus.

Software

No particular software is needed to take the Physics II course, except for the usual tools to browse the internet. It is recommended to employ a program to generate pdf documents, which will be used to submit individual or group assignments via the CV.

Course groups and languages

The information provided is provisional until November 30. After this date, you will be able to consult the language of each group through this link. To access the information, you will need to enter the course CODE

Type of teaching Group Language Semester Shift
(TE) Theory 1 Spanish second semester morning-mixed
(PAUL) Classroom practices 1 Spanish second semester morning-mixed
(TE) Theory 2 Catalan second semester afternoon
(PAUL) Classroom practices 2 Catalan second semester morning-mixed
(PAUL) Classroom practices 3 Catalan second semester afternoon
(PAUL) Classroom practices 4 Catalan second semester afternoon