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Distributed energy sources and electric transport - course description

General information
Course name Distributed energy sources and electric transport
Course ID 06.2-WE-ELEKTP-DESandET-Er
Faculty Faculty of Computer Science, Electrical Engineering and Automatics
Field of study Electrical Engineering
Education profile academic
Level of studies First-cycle Erasmus programme
Beginning semester winter term 2022/2023
Course information
Semester 5
ECTS credits to win 5
Course type optional
Teaching language english
Author of syllabus
Classes forms
The class form Hours per semester (full-time) Hours per week (full-time) Hours per semester (part-time) Hours per week (part-time) Form of assignment
Project 15 1 - - Credit with grade
Class 15 1 - - Credit with grade
Laboratory 15 1 - - Credit with grade
Lecture 30 2 - - Exam

Aim of the course

To familiarize students with issues related to distributed sources of electricity and heat as well as with electric vehicles and charging infrastructure.

Prerequisites

Fundamentals of electrical engineering such as: PV sources, wind turbines as well as basic issues related to power grid.

Scope

Photovoltaic installations: types of PV panels; connection topologies of PV systems; prosumer PV installation

Wind generators: types of wind generators.

Geothermal energy. Basics of operation and construction of heat pumps.

Biogas, biomass and waste heat. Fermentation as a way of obtaining biogas.

The use of electrolysis and hydrogen. Fusion.

Ways to control the output power of distributed sources. Impact of distributed sources on the system network.

Electricity storage technologies.

Hybrid vehicles: serial and parallel hybrid. Range extenders. Battery electric vehicles. Electric vehicle charging standards. Hydrogen vehicles. Electric and hydrogen vehicle charging infrastructure. Impact of charging infrastructure on the system network.

Teaching methods

Lecture: conventional lecture, problem lecture, discussion

Exercises: consultations, project method, accounting exercises

Laboratory: work in groups, laboratory exercises

Project: project method, discussions and presentations

Learning outcomes and methods of theirs verification

Outcome description Outcome symbols Methods of verification The class form

Assignment conditions

Lecture - the condition of passing is obtaining a positive grade from the exam.

Exercises - the condition for passing is passing 3 tests on problem solving skills.

Laboratory - the pass condition is to obtain positive grades from all laboratory exercises carried out under the program.

Project - the condition for getting credit is obtaining positive grades from all project tasks implemented under the program.

 

Components of the final grade = lecture: 45% + exercises: 20 + laboratory: 20% + project 15%

Recommended reading

  1. A. Reinders, P. Verlinden, W. van Sark,  A Freundlich: Photovoltaic Solar Energy: From Fundamentals to Applications, John Wiley & Sons, 2016.
  2. O'Hayre R.: Fuel Cell Fundamentals, John Wiley & Sons, 2016.
  3. S. Sachan, S. Padmanaban, S. Deb: Smart Charging Solutions for Hybrid and Electric Vehicles, John Wiley & Sons, 2022.

Further reading

  1. Bogdan Szymański, Instalacje Fotowoltaiczne 2021.

Notes


Modified by dr inż. Szymon Wermiński (last modification: 12-04-2022 15:42)