Tribunal titular

Cargo

Departamento

Profesor

Presidente

ING.ELECTR.DE SIST. Y AUTOMATI

BLANES PEIRO , JORGE JUAN

Secretario

ING.ELECTR.DE SIST. Y AUTOMATI

DIEZ SUAREZ , ANA MARIA

Vocal

ING.ELECTR.DE SIST. Y AUTOMATI

FALAGAN CAVERO , JOSE LUIS

Tribunal suplente

Cargo

Departamento

Profesor

Presidente

ING.ELECTR.DE SIST. Y AUTOMATI

FERNANDEZ LOPEZ , CARLOS

Secretario

ING.ELECTR.DE SIST. Y AUTOMATI

DIEZ DIEZ , ANGELA

Vocal

ING.ELECTR.DE SIST. Y AUTOMATI

FERRERO FERNANDEZ , MIGUEL

Description

Qualification

Lecture

The student's participation in class and in classroom discussions will be evaluated. Regular attendance and the attitude displayed may be taken into account for evaluation. This will be evaluated together with the mixed assessment section.

Laboratory practicals

Evaluation of practical work. The skills acquired by the student in the practical application of knowledge will be assessed. All scheduled practices must be completed, and all required assignments and reports must be submitted in order to pass the course.
Attendance at practical sessions is mandatory to pass the course. Only those practices whose absence is adequately justified can be made up.
The assessment of the practices will be carried out once the minimum established in the tests and exams of the subject has been passed.
Submission is mandatory and it is a requirement to obtain a grade of 5.0 out of 10.0 in the test. No average will be calculated if this condition is not met.
The total weight of the practical part will be 20%.
The practice report will be submitted in PDF format through Moodle (adhering to the maximum size allowed by the platform). Submission deadlines will be set throughout the course.

20%

Mixed tests

The grade obtained in the corresponding assessments throughout the training process will be considered. These assessments will be designed to evaluate the competencies acquired by the student. Regular attendance in classes and the attitude displayed may be taken into account for evaluation. To pass the course, it will be necessary to pass each of the content blocks into which it is divided. The student's participation in theory and problem-solving classes will also be taken into account.

75%

Others

Submission and/or presentation of problems proposed by the professor.

Other comments and second call

All documents must be submitted either through the Moodle platform (PDF format only) or in paper format, or both. Email submissions are not allowed, and late submissions will not be accepted.

The file name should consist of the student's National ID (NIF) followed by their first name and last name, along with an identification of the problem or test.

Each document must include the student's name, NIF, and the solution to the problem or assignment, including:

Introduction or statement

Objectives

Solution or practical execution

Analysis of the solution

Conclusions and personal assessment

Attendance at Individual Character Tests and Reviews:

Students must bring valid identification.

Tests will cover material equal to or more advanced than that covered in class to allow high-achieving students to earn outstanding grades.

Exams may be video-recorded for fraud detection purposes.

Any proven cases of cheating will result in a suspension of two exam opportunities or disciplinary action as per university regulations.

Students must adhere to examination regulations set by the University of León.

Test Materials and Conduct:

Students are allowed to bring specific materials to the exam room, including pens, a correction fluid, a ruler, a non-programmable calculator, and additional materials if permitted.

Only clear water in a transparent bottle is permitted, with strict usage guidelines.

Electronic devices such as phones or tablets are strictly prohibited.

Communication or sharing of materials with other students during the exam is forbidden.

Only blue or black pens are allowed for writing; red ink is prohibited.

Leaving the exam room while another student is still working on the test is not allowed.

No food or drinks except water are allowed in the exam room.

Grading and Evaluation:

Each test or assignment must be passed with a minimum score of 5.0 out of 10.0.

No averaging with other parts of the evaluation is done if this condition is not met.

There are no retakes for any test or assignment.

Regular attendance and attitude may be considered in the evaluation process.

Students must pass each content block to pass the course. If one or more blocks are not passed, the average score of those blocks will be the final grade.

Second Call:

Theory evaluation consists of one or more written tests covering program content and contributes 80% to the total course grade.

Practical evaluation involves retaining the grade obtained in laboratory practices. Alternatively, if the student prefers or has failed the practicals, they must pass an alternative exam. This alternative exam contributes 20% to the total course grade.

These guidelines provide a comprehensive framework for assessment, evaluation, and conduct during exams and assignments.

Code
A18146
B5632
B5634
B5635
B5642
B5643
B5646
B5647
B5651
C1	CMECES1 That students have demonstrated possession and understanding of knowledge in an area of study that is based on general secondary education, and is usually found at a level that, although supported by advanced textbooks, also includes some aspects that involve knowledge from the cutting edge of their field of study
C2	CMECES2 That students know how to apply their knowledge to their work or vocation in a professional manner and possess the skills that are usually demonstrated through the development and defense of arguments and the resolution of problems within their area of study.
C4	CMECES4 That students can transmit information, ideas, problems and solutions to both a specialised and non-specialised audience

	Competences
Get to know the basic principles, analysis methods, and fundamental theorems of electrical circuits in general.	A18146	B5632 B5635	C1 C2 C4
Perform calculations in direct current electrical circuits, applying basic principles and concepts of electricity, both in steady-state and transient conditions.	A18146	B5632 B5634 B5635 B5642 B5643 B5646 B5647 B5651	C1 C2 C4
Perform calculations in single-phase alternating current (AC) electrical circuits, applying the most appropriate techniques in both steady-state and transient conditions.	A18146	B5632 B5634 B5635 B5642 B5643 B5646 B5647 B5651	C1 C2 C4
Use some computer circuit simulation tool for both steady state, DC or AC, and transient state, and compare the results with those obtained analytically.	A18146	B5643 B5646 B5647	C2
Perform calculations related to magnetic circuits.	A18146	B5643 B5646	C1
Know the basic principles of electric machines.	A18146	B5646 B5647 B5651	C1 C4
Recognize and describe the characteristics of electric machines, their structure and operation, and their main applications.	A18146	B5632 B5646	C1

Topic	Sub-topic
SECTION I: CIRCUIT ANALYSIS METHODS	Topic 1: BASIC CONCEPTS: CIRCUIT ELEMENTS, ENERGY, AND POWER. Active and passive elements are presented along with their behavior equations. Calculation of power and energy involved by these elements. Topic 2: CIRCUIT ANALYSIS METHODS AND THEOREMS Kirchhoff's Laws and Thévenin/Norton theorems are presented along with the principle of superposition. Mesh and nodal analysis methods are also described.
BLOCK II: CIRCUITS IN STEADY-STATE SINUSOIDAL OPERATION	Topic 1: CIRCUITS IN STEADY STATE SINUSOIDAL. The concepts seen in the previous section are applied to sinusoidal alternating current circuits.
BLOCK III: CIRCUITS IN TRANSIENT STATE	Topic 1: SIMPLE CIRCUITS IN TRANSIENT STATE. Solving first-order circuits in transient state.
BLOCK IV: INTRODUCTION TO ELECTRIC MACHINES	Topic 1: MAGNETIC CIRCUITS AND ELECTROMECHANICAL ENERGY CONVERTERS. Review of electromagnetism applied to electric machines Topic 2: GENERAL ASPECTS COMMON TO ELECTRIC MACHINES. Basic operating principles of electric machines Topic 3: CLASSIFICATION, CHARACTERISTICS, AND MAIN APPLICATIONS OF ELECTRIC MACHINES Different types of electric machines are discussed and classified, providing an overview of their applications.
Practices	Laboratory practices Circuit simulation practices

Methodologies :: Tests
	Class hours	Hours outside the classroom	Total hours
Problem solving, classroom exercises	10	20	30

Personal tuition	2	0	2
Laboratory practicals	15	10	25

Lecture	30	60	90

Mixed tests	3	0	3

(*)The information in the planning table is for guidance only and does not take into account the heterogeneity of the students.

	Description
Problem solving, classroom exercises	Formulation, analysis, resolution, and discussion of a problem or exercise related to the subject matter of the course. The goal is for the student to assimilate the theoretical content presented in the lectures.
Personal tuition	It will be dedicated to solving specific doubts regarding issues that students may present.
Laboratory practicals	These will take place in a Department Laboratory. Groups with a very small number of students will be formed to carry out a practical assignment assigned to each group, consisting of performing the specified practices and preparing the corresponding practice report. Students will have access to the documentation and necessary materials for conducting the practices. With timely clarifications provided by the professor, students will be able to carry out the practical work. They will note the results and prepare a report containing the theoretical foundations, practical implementation, obtained results, and specific conclusions of their work. Students will submit a report, serving as an evaluation criterion for the practical component, within a period of less than 2 weeks after each practice session.
Lecture	First, a theoretical exposition of all the concepts outlined in the curriculum is presented. Subsequently, the concepts are justified, and their application to specific cases is demonstrated.

- HAYT W. H. Engineering Circuit Analisis. MCGrawHill

- FRAILE MORA,J. Circuitos Eléctricos. Ed. PEARSON. Madrid.

- GÓMEZ EXPOSITO, A. y otros. Fundamentos de Teoría de Circuitos. Ed. THOMSON. Madrid.

- FRAILE MORA, J. Máquinas eléctricas. Servicio de Publicaciones E.T.S.I. Telecomunicación. Madrid.

- EDMINISTER, J.A. Circuitos eléctricos. McGraw-Hill. (Schaum). Madrid.

- SANJURJO NAVARRO, R. Máquinas Eléctricas. MacGraw-Hill. Madrid.

- RAS OLIVA, E. Transformadores de potencia, de medida y protección. Marcombo. Barcelona.

- CORTÉS, M. Curso moderno de máquinas eléctricas rotativas (tomo II). Editores técnicos asociados. Barcelona.

- NILSSON, J.W.; RIEDEL, S.A. Circuitos eléctricos. Ed. Pearson Prentice Hall. 2000

- SANZ FEITO, J. Máquinas eléctricas. Ed. Pearson Prentice Hall. 2002

- BALBANIAN, N.; BICKART, T.A.; SESHU, S. Teoría de redes eléctricas. Ed. Reverté, S.A. Barcelona.

- HUBERT, CH.I. Circuitos eléctricos c.a./c.c. Enfoque integrado. McGraw-Hill. México.

- GÓMEZ EXPÓSITO, A. Problemas resueltos de Teoria de Circuitos. Paraninfo. Madrid.

- VALKENBURG, M.E.Análisis de redes. Limusa. México.

- EDMINISTER, J.A. Circuitos eléctricos (Teoría y 350 Problemas resueltos). McGraw-Hill. (Schaum). México.

- RAS OLIVA, E. Teoría de circuitos: Fundamentos. Marcombo. Tercera edición. Barcelona.

- EGUILUZ MORAN, L.I. Pruebas objetivas de Ingeniería Eléctrica. Ed. Alhambra, S.A.. Madrid.

- HERRANZ ACERO, G. Convertidores electromecánicos de energía. Marcombo. Boixareu Editores. Barcelona.

- CHAPMAN, S. Máquinas eléctricas. Ed. McGraw-Hill. Bogotá (Colombia).

- ORTEGA JIMÉNEZ, J., PASTOR GUTIÉRREZ, A.. Electrotecnia General (Máquinas eléctricas). E.T.S.I.I. de Madrid.

- PALACIOS BREGEL, J. Electrotecnia. Serv. Publicaciones E.U.I.T.I. de Madrid. Madrid.

Basic
	- HAYT W. H. Engineering Circuit Analisis. MCGrawHill - FRAILE MORA,J. Circuitos Eléctricos. Ed. PEARSON. Madrid. - GÓMEZ EXPOSITO, A. y otros. Fundamentos de Teoría de Circuitos. Ed. THOMSON. Madrid. - FRAILE MORA, J. Máquinas eléctricas. Servicio de Publicaciones E.T.S.I. Telecomunicación. Madrid.
Complementary
	- EDMINISTER, J.A. Circuitos eléctricos. McGraw-Hill. (Schaum). Madrid. - SANJURJO NAVARRO, R. Máquinas Eléctricas. MacGraw-Hill. Madrid. - RAS OLIVA, E. Transformadores de potencia, de medida y protección. Marcombo. Barcelona. - CORTÉS, M. Curso moderno de máquinas eléctricas rotativas (tomo II). Editores técnicos asociados. Barcelona. - NILSSON, J.W.; RIEDEL, S.A. Circuitos eléctricos. Ed. Pearson Prentice Hall. 2000 - SANZ FEITO, J. Máquinas eléctricas. Ed. Pearson Prentice Hall. 2002 - BALBANIAN, N.; BICKART, T.A.; SESHU, S. Teoría de redes eléctricas. Ed. Reverté, S.A. Barcelona. - HUBERT, CH.I. Circuitos eléctricos c.a./c.c. Enfoque integrado. McGraw-Hill. México. - GÓMEZ EXPÓSITO, A. Problemas resueltos de Teoria de Circuitos. Paraninfo. Madrid. - VALKENBURG, M.E.Análisis de redes. Limusa. México. - EDMINISTER, J.A. Circuitos eléctricos (Teoría y 350 Problemas resueltos). McGraw-Hill. (Schaum). México. - RAS OLIVA, E. Teoría de circuitos: Fundamentos. Marcombo. Tercera edición. Barcelona. - EGUILUZ MORAN, L.I. Pruebas objetivas de Ingeniería Eléctrica. Ed. Alhambra, S.A.. Madrid. - HERRANZ ACERO, G. Convertidores electromecánicos de energía. Marcombo. Boixareu Editores. Barcelona. - CHAPMAN, S. Máquinas eléctricas. Ed. McGraw-Hill. Bogotá (Colombia). - ORTEGA JIMÉNEZ, J., PASTOR GUTIÉRREZ, A.. Electrotecnia General (Máquinas eléctricas). E.T.S.I.I. de Madrid. - PALACIOS BREGEL, J. Electrotecnia. Serv. Publicaciones E.U.I.T.I. de Madrid. Madrid.