Public University of Navarre



Academic year: 2023/2024 | Previous academic years:  2022/2023  |  2021/2022 
Bachelor's degree in Industrial Engineering at the Universidad Pública de Navarra
Course code: 252711 Subject title: WIND AND PHOTOVOLTAIC SYSTEMS
Credits: 6 Type of subject: Optative Year: 4 Period: 1º S
Department: Ingeniería Eléctrica, Electrónica y de Comunicación
Lecturers:
SANCHIS GURPIDE, PABLO   [Mentoring ] URTASUN ERBURU, ANDONI (Resp)   [Mentoring ]

Partes de este texto:

 

Module/Subject matter

Electricity generation

 

 

Módulo MTEE (Módulo de Tecnología Específica Electricidad) / Materia M53 - Generación Eléctrica. 

La asignatura es obligatoria para aquellos estudiantes que cursan la Especialidad Electricidad, dentro del Grado en Ingeniería en Tecnologías Industriales.

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Contents

The contents of this subject focus on understanding the fundamentals of wind and solar photovoltaic energy. For both types of systems, their configuration, the problems of their grid integration, their isolated operation, the different architectures and conversion topologies employed and the control systems are studied. In the case of wind systems, the operation principle of wind generators with synchronous machine and doubly-fed machine is developed. For photovoltaic systems, the main conversion topologies used in the photovoltaic industry are studied, with special attention to those connected to the grid. Finally, the main aspects of the wind and photovoltaic markets are also presented, both at the level of companies, implementation, technologies, costs and trends.

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General proficiencies

 

CG1: Ability to develop and complete industrial engineering projects whose objective is to build, repair, maintain, install and assemble structures, mechanical equipment, energy installations, electric and electronic installations, facilities, and production and assembly processes.

 

CG2: Ability to address the activities under engineering projects described in the previous epigraph.

 

CG3: Knowledge of basic and technological subjects, to have the ability to learn new methods and theories, and versatility to adapt to new situations.

 

CG4: Problem solving proficiency with personal initiative, decision making, creativity and critical reasoning. Ability to elaborate and communicate knowledge and skills in industrial engineering.

 

CG7: Ability to analyze and assess the social and environmental impact of technical solutions.

 

CG10: Ability to work in a multilingual and multidisciplinary environment.

 

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Specific proficiencies

CE8-A: Applied knowledge of renewable energies.

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Learning outcomes

R1. Understand the fundamentals of wind energy.

R2. Understand the fundamentals of solar photovoltaic energy.

R3. Understand the operating principle of stand-alone systems for electricity generation.

R4. Acquire knowledge of the conversion topologies employed in photovoltaic systems.

R5. Understand the operation of the main conversion topologies and control structures employed in photovoltaic systems.

R6. Acquire knowledge of the operation of the wind generators, both for synchronous generator and doubly-fed induction generator

R7. Acquire knowledge of the conversion topologies employed in small wind systems

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Methodology

Activity
In classroom
Out of classroom
A-1 Lectures
45
 
A-2 Laboratory sessions
15
 
A-3 Discussions, group mentoring
 
6
A-4 Asessment activities
 
20
A-6 Individual study
 
60
A-7 Exams
4
 
 
 
 
Total
64
86

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Languages

English

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Evaluation

 

Learning
outcome
Assessment
activity
Weight (%) It allows
test resit
Minimum
required grade
R1, R2, R3, R4, R5, R6, R7, R8 Exam: Theory and exercises 80%, divided into two exams (Photovoltaic Systems and Wind Systems), with a 40% weight each. A minimum mark of 4,5 in each exam is required to pass the subject. Yes 4,5
R1, R2, R5, R6 Laboratory sessions: Tests and presentation 20%, divided into the two laboratory blocks (Photovoltaic Systems and Wind Systems), with a 10% weight each. The attendance and participation in the laboratory sessions is required to pass the subject. In case of an unjustified absence, the final mark will be "Absent". Yes -

 

Concerning the second-chance examination, only the failed block will be re-evaluated. Again, a minimum mark of 4,5 in each theory exam is required to pass the subject.

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Agenda

Block A: Photovoltaic systems
Lesson 1. Market and technology
Lesson 2. Fundaments of the photovoltaic systems
Lesson 3. Electronic-conversion topologies
Lesson 4. Control of the conversion system
Laboratory sessions. Design and simulation of a photovoltaic system
 
Block B: Wind systems
Lesson 1. Market and technology
Lesson 2. Fundaments of the wind systems
Lesson 3. Regulation strategies
Lesson 4. Conversion topologies based on the induction generator
Lesson 5. Conversion topologies based on the synchronous generator
Laboratory sessions. Design and simulation of a wind system

 

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Experimental practice program

The experimental practice program includes the design and simulation of a photovoltaic system and a wind system. The work is developped in the Laboratory of Simulation and in the Laboratory of Power Electronics and Renewable Energies, both located in the Pinos Building, 1st floor.

The program includes a team competition, focusing on the design of an efficient photovoltaic system for a given solar conditions. The winner obtains a mark of 10 in the laboratory sessions of the photovoltaic block.

Finally, the program includes a visit to a factory where the photovoltaic and wind converters are manufactured, with the objective that the students learn about the real applications studied in the lectures.

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Bibliography

Access the bibliography that your professor has requested from the Library.


Basic bibliography

1. Material elaborated by the Lecturers of the Electrical Engineering Area, Public University of Navarre (available through the MiAulario platform).

2. Laboratory instruction elaborated by the Lecturers of the Electrical Engineering Area.

Additional bibligraphy

1. J.L. Rodríguez de Amenedo, J.C. Burgos Díaz, S. Arnalte Gómez, "Sistemas eólicos de producción de energía eléctrica", Ed. Rueda, Madrid 2003, ISBN:84-7207-139-1

2. Siegfried Heier, "Grid Integration of Wind Energy Conversion Systems", Ed. John Wiley & Sons, Chichester, 1998, ISBN 0-471-97143-X.

3. Centro de Investigaciones Energéticas, Medioambientales y Tecnológicas (CIEMAT), "Fundamentos, dimensionado y aplicaciones de la energía solar fotovoltaica", Ed. CIEMAT, Madrid, 2005, ISBN 84-7834-491-8.

4. E. Lorenzo, "Electricidad solar. Ingeniería de los sistemas fotovoltaicos", Ed. PROGENSA, Sevilla, 1994, ISBN 84-86505-45-3.

5. D.W. Hart, "Electrónica de potencia", Ed. Prentice-Hall, 2001, ISBN 84-205-3179-0.

6. N. Mohan, T. M. Undeland and W. P. Robbins, "Power Electronics. Converters, Applications, and Design", Ed. John Wiley & Sons, Chichester, England, 1995, ISBN 0-471-58408-8.

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Location

Lectures: Classroom.

Laboratory sessions: Laboratory of Simulation and Laboratory of Renewable Energies, both located in the 1st floor of Los Pinos building

 

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