Materia
Modelado y control de sistemas de almacenamiento y convertidores asociados
Datos generales de la materia
- Modalidad
- Presencial
- Idioma
- Inglés
Descripción y contextualización de la asignatura
The importance of energy storage systems is growing significantly in Europe for both grid and mobility applications. There are many companies and research centers in Europe involved in researching, developing, manufacturing, or using energy storage systems, and especially in the Basque Country, like Iberdrola, EDF, CAF, Irizar, Jema Energy, Siemens, Ingeteam, Cegasa, Ikerlan Cidetec or CIC energiGUNE.This course, divided in a theory and a laboratory practical part, introduces the main energy storage technologies, their application in the different fields (grid, micro-grids or e-mobility), their system topologies, and their modelling and control.
As an introduction to the topic, in the last years the integration of Energy Storage Systems (ESSs) into the grid, smart-grids and e-mobility has gained the market interest. The ESS particularity of allowing to provide or absorb energy, has allowed to develop new management and control services into the electric grid, in particular to a Smart Grid, such as frequency regulation, peak-shaving, injection of reactive power, voltage regulation and the integration of renewable energy sources among others.
An ESS cannot be managed without an inverter/converter. However, this is a positive point, since most of the electric systems in a microgrid or e-mobility powertrain have an inverter/converter too. The correct management of the system inverters/converters by means of energy management strategies (EMS) algorithms allows to provide the abovementioned new services.
The course starts with a description of the management and control services that can be provided with an ESS to the electric grid, in particular to a Smart Grid.
For each service, the correct ESS has to be selected. For the correct selection, different energy storage technologies are introduced, and an analysis of the basic operating principle of each one is performed. Their most important technical characteristics are introduced, including energy and power capacity, specific energy and power, efficiency, and cycle life. Finally, the cost of the different ESS technologies is also analyzed and the total cost of an energy storage system is briefly introduced.
Some of the most used ESS are thoroughly analyzed. Their dynamic, mechanic or electric models are presented, as well as the most important power conversion topologies and their classical control algorithms. The integration and management of inverters/converters in a micro-grid with ESS is analyzed in simulations.
In the event that the sanitary conditions prevent the realization of a teaching activity and / or face-to-face evaluation, a non-face-to-face modality will be activated of which the students will be informed promptly.
Profesorado
Nombre | Institución | Categoría | Doctor/a | Perfil docente | Área | |
---|---|---|---|---|---|---|
CORTAJARENA ECHEVERRIA, JOSE ANTONIO | Universidad del País Vasco/Euskal Herriko Unibertsitatea | Profesorado Titular De Universidad | Doctor | No bilingüe | Tecnología Electrónica | josean.cortajarena@ehu.eus |
LOPEZ IBARRA, JON ANDER | Jema Energy S.A. | Otros | Doctor | jonander.lopez@jemaenergy.com | ||
PATINO RODRIGUEZ, ORENCIO JAVIER | Motion and Control Aplicaciones | Otros | jabier.patino@mcaplicaciones.com |
Competencias
Denominación | Peso |
---|---|
Que los estudiantes tengan conocimiento actualizado sobre las técnicas y metodologías de trabajo avanzadas relacionadas con el ámbito de las Smartgrids y la Generación Distribuida, en particular desde el punto de vista de su control. | 10.0 % |
Establecer modelos dinámicos de los distintos componentes de las Smartgrids, en particular diferentes unidades de Generación Distribuida. | 25.0 % |
Diseñar leyes de control a nivel local de diferentes componentes de Smartgrids, en particular unidades de Generación Distribuida. | 25.0 % |
Evaluar y validar modelos y controladores de distintos componentes de las Smartgrids, mediante simulaciones y ensayos experimentales, empleando distintas herramientas informáticas y prototipos. | 20.0 % |
Que los estudiantes estén capacitados para comunicarse sobre trabajos realizados en colaboración en equipos multidisciplinares y multilingües nacionales e internacionales formados por profesionales e investigadores que trabajen en el ámbito de las Smartgrids. | 10.0 % |
Que los estudiantes estén capacitados para comprender y analizar documentos técnicos, normas y artículos científicos en la temática del Máster, así como para aplicarlos en el desarrollo de trabajos e investigaciones relacionados con el ámbito de las Smartgrids. | 10.0 % |
Tipos de docencia
Tipo | Horas presenciales | Horas no presenciales | Horas totales |
---|---|---|---|
Magistral | 10 | 20 | 30 |
P. de Aula | 10 | 15 | 25 |
P. Ordenador | 10 | 10 | 20 |
Actividades formativas
Denominación | Horas | Porcentaje de presencialidad |
---|---|---|
Clases expositivas | 12.0 | 100 % |
Ejercicios | 25.0 | 40 % |
Estudio sistematizado | 18.0 | 0 % |
Resolución de casos prácticos | 20.0 | 47 % |
Sistemas de evaluación
Denominación | Ponderación mínima | Ponderación máxima |
---|---|---|
Examen escrito | 30.0 % | 70.0 % |
Preguntas a desarrollar | 5.0 % | 20.0 % |
Trabajos Prácticos | 10.0 % | 40.0 % |
Resultados del aprendizaje de la asignatura
At the end of the course, the students will be able to:• Understand the different energy storage systems and the advantages and disadvantages of each technology. Be able to evaluate which of them will be the most appropriate depending on the grid connected application, justifying the decision in a rigorous way.
• Identify power converter topologies that can be used to control the storage system. Apply the modeling techniques of both the storage system and the converter to analyze their operation.
• Be able to design control methods for the management of storage systems using power converters, simulate its operation at the level of simulations and clearly understand the results.
Convocatoria ordinaria: orientaciones y renuncia
CONTINUOUS EVALUATION SYSTEMClass attendance and participation. Professors will be expecting student participation in class. Class attendance and class participation will be accounted for the final grade.
Theory part. The professor will assign a paper at the beginning of the semester. The students, in teams or individually, will work on the paper that will be submitted at the end of the semester. The paper will serve to prove the students have understood the topics presented during the semester.
Lab simulation part. Perform simulations and models using MATLAB. The methodology for getting the results and the obtained results will be collected in a paper.
The professor will assign a project to the student that will be developed in the laboratory. The elaboration process and the results will be used to evaluate the subject.
The grade with be the sum of Class Attendance and Participation (20%), Theory Part (40%) and Lab simulation part (40%).
In order to pass you must obtain at least 5 points out of 10 in both the theory part and the practical part.
FINAL EVALUATION SYSTEM
According to article 8 of the Regulations, regulating the assessment of students in the official degrees, the students shall have the right to be evaluated by means of the FINAL EVALUATION SYSTEM, independently of the fact that has or has not participated in the CONTINUOUS EVALUATION SYSTEM. In order to do so, students must present the following information written to the teacher in charge of the subject the renunciation of the CONTINUOUS EVALUATION within a period of 9 weeks from the beginning of the term. In this case, the student will be assessed with a single final exam. This final exam will consist on an oral exam related to the skills that the students have to acquire in the subject.
RENUNCIATION
According to article 12 of the Regulations, regulating the assessment of students in the official degrees, in the case of CONTINUOUS EVALUATION, the student may renounce the call for proposals within a period which, as a minimum, will be up to one month before the end of the teaching period of the corresponding subject. This waiver must be submitted in writing to the teacher responsible for the subject. In the case of FINAL EVALUATION, a no presentation to the official examination will result in the automatic waiver of the corresponding call. Renunciation of the call will result in the qualification of not presented.
Convocatoria extraordinaria: orientaciones y renuncia
The criteria to pass each activity as the weighting of the grade will be the same as in the ordinary call.RENUNCIATION
A no presentation to the official examination will result in the automatic waiver of the corresponding call. Renunciation of the call will result in the qualification of not presented.
Temario
Topic 1- Introduction to the storage systems and their use to provide grid servicesTopic 2- Analysis and comparison of different energy storage technologies
Topic 3- Analysis of Li-ion technology
PW1- Li-ion Laboratory + Li-ion Model
Topic 4- Analysis of ultracapacitor technology
PW2 - Sizing a Battery System
Topic 5- Analysis of flywheel technology
PW3 - Ultracapacitor
Bibliografía
Materiales de uso obligatorio
Access to the material of the subject through Moodle: https://egela.ehu.eus/Bibliografía básica
A. Akhil et.al., “DOE/EPRI electricity storage handbook in collaboration with NRECA”, Sandia National Laboratories, 2013.D. W. Gao, “Energy storage for sustainable microgrid”, Elsevier, 2015.
F. Díaz-González et.al., “Energy Storage in Power Systems”, John Wiley & Sons, 2016.
A. Ter-Gazarian, “Energy Storage for Power Systems”, IET, 2011.
P. T. Moseley et.al., “Electrochemical Energy Storage for Renewable Sources and Grid Balancing”, Elsevier, 2015.
C. Menictas et.al., “Advances in Batteries for Medium and Large-Scale Energy Storage: Types and Applications”, Elsevier, 2014.
T. B. Reddy et.al., “Linden’s handbook of batteries”, McGraw-Hill, 2011.
J. M. Miller, “Ultracapacitor applications”, IET, 2011.
S. Chakraborty, et.al., “Power Electronics for Renewable and Distributed Energy Systems: A Sourcebook of Topologies, Control and Integration”, Springer Science & Business Media, 2013.
S. Schoenung, “Energy storage systems cost update”, Sandia National Laboratories, 2011.
Bibliografía de profundización
“Electrical energy storage: technology overview and applications”, CSIRO, 2015.“Grid energy storage,” US Department of energy, 2013.
A. B. Gallo et.al., “Energy storage in the energy transition context: A technology review”, Renewable and Sustainable Energy Reviews, vol. 65, pp. 800–822, 2016.
M. Aneke et.al., “Energy storage technologies and real life applications – A state of the art review”, Applied Energy, vol. 179, pp. 350–377, 2016.
C. K. Dyer et.al., “Encyclopedia of Electrochemical Power Sources”, Newnes, 2013.
A. Franco, “Rechargeable Lithium Batteries: From Fundamentals to Applications”, Elsevier, 2015.
P. J. Grbovic, “Ultra-capacitors in power conversion systems: applications, analysis and design from theory and practice”, IEEE Press/ Wiley, 2014.
A. Yu et.al., “Electrochemical supercapacitors for energy storage and delivery: fundamentals and applications”, CRC Press, 2013.
B. Bolund et.al., “Flywheel energy and power storage systems,” Renewable and Sustainable Energy Reviews, vol. 11, no. 2, pp. 235–258, 2007.
G. O. Suvire et.al., “Active power control of a flywheel energy storage system for wind energy applications,” IET Renewable Power Generation, vol. 6, no. 1, 2012.
Revistas
IEEE Energy ConversionIEEE Transactions on Power Electronics
IEEE Transactions on Industrial Electronics
IEEE Transactions on Smart Grids
IET Renewable Power Generation
Energy Conversion and Management
Renewable Energy
Applied Energy
Renewable and Sustainable Energy Reviews
Enlaces
http://www.electricitystorage.org/https://batteryuniversity.com/learn/
Battery Course from Columbia University (Dr. Gregory L. Plett): http://mocha-java.uccs.edu/ECE5720/index.htm