| Language of instruction : English |
| Exam contract: not possible |
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Sequentiality
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No sequentiality
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| Degree programme | | Study hours | Credits | P1 SBU | P1 SP | 2nd Chance Exam1 | Tolerance2 | Final grade3 | |
 | Master of Energy Engineering Technology | Compulsory | 108 | 4,0 | 108 | 4,0 | Yes | Yes | Numerical |  |
|
| | | Learning outcomes |
- EC
| EC1 - The holder of the degree thinks and acts professionally with an appropriate engineering attitude and continuous focus on personal development, adequately communicates, effectively cooperates, takes into account the sustainable, economical, ethical, social and/or international context and is hereby aware of the impact on the environment. | | | - DC
| DC-M8 - The student can evaluate knowledge and skills critically to adjust own reasoning and course of action accordingly. | | | | - BC
| The student is critical about the fields that are involved in the power electronics field. The student is able to understand how power conversion in power converters is done. The student seek for valuable and reliable information about power electronics. The student is critical about her/his own findings and designs, and is able to evaluate their relevance for the application. | - EC
| EC4 - The holder of the degree has advanced knowledge of and insight in the principles and applications in electrical engineering , possibly complemented with automation or material science and production, in which he/she can independently identify and critically analyse complex, practice-oriented design or optimisation problems, and methodologically create solutions with eye for data processing and implementation and with attention to the recent technological developments. | | | - DC
| DC-M3 - The student can recognize problems, plan activities and perform accordingly. | | | | - BC
| The student is able to understand and recognize the problems of designing and implementing power conversion strategies in a wide variety of applications | | | - DC
| DC-M4 - The student can gather, measure or obtain information and refer to it correctly. | | | | - BC
| The student is able to get the information about semiconductors, magnetic materials, windings, capacitors, energy sources, load profiles, control strategies, assembly and testing as well as to understand the importance of these components and materials in power electronics and the energy sector. | | | - DC
| DC-M5 - The student can analyze problems, logically structure and interpret them. | | | | - BC
| The student can analyse the different conversion types, can analyse power converter topologies and the effect of technology selection in the operation of power converters in the field. The student can distinguish and logically interpret how each component in the analyses affect key performance indicators like efficiency, size, cost, etc. | | | - DC
| DC-M6 - The student can select methods and make calculated choices to solve problems or design solutions. | | | | - BC
| The student can calculate and design suitable components based on given parameters, specifications, and conditions. | | | - DC
| DC-M7 - The student can use selected methods and tools to implement solutions and designs. | | | | - BC
| The student is able to implement the power converters and components in a software tool. The student is able to run several study cases and analyse results. | | | - DC
| DC-M8 - The student can evaluate knowledge and skills critically to adjust own reasoning and course of action accordingly. | | | | - BC
| The student is critical about the results obtained by her/his own designs. The student is able to distinguish reliable results and to contrast them with the theory. | - EC
| EC5 - The holder of the degree has specialist knowledge of and insight in principles and applications within the domain of energy and power systems in which he/she can independently identify and critically analyse unfamiliar, complex design or optimisation problems, and methodologically create solutions with eye for data processing and implementation, with the help of advanced tools, aware of practical constraints and with attention to the recent technological developments. | | | - DC
| DC-M3 - The student can recognize problems, plan activities and perform accordingly. | | | | - BC
| The student is able to recognize the role of power electronics in the current energy transition, their current challenges, and the trends towards the future electric systems. The student us able to plan and perform accordingly. | | | - DC
| DC-M4 - The student can gather, measure or obtain information and refer to it correctly. | | | | - BC
| The student is able to gather reliable information about the components that are used in power conversion systems, as well as the enrgy sources and loads that the power converter will interconnect. | | | - DC
| DC-M5 - The student can analyze problems, logically structure and interpret them. | | | | - BC
| The student understands how electrical energy is used and converted in a power converter, how each component works, and how all of them contribute to power conversion. The student can analyse the energy breakdown among the components, and can logically interpret the points where more energy is consumed. | | | - DC
| DC-M7 - The student can use selected methods and tools to implement solutions and designs. | | | | - BC
| The student is able to design power converters for different profiles, loads and boundary conditions. The student is able to integrate such designs in software tools and obtain reliable results. | | | - DC
| DC-M8 - The student can evaluate knowledge and skills critically to adjust own reasoning and course of action accordingly. | | | | - BC
| The student is critical about the results obtained from the software tools. The student is able to contrast the results with the theoretical and literature counterparts. |
|
| | EC = learning outcomes DC = partial outcomes BC = evaluation criteria |
|
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Basic knowledge of calculation of electrical and magnetic circuits.
Basic knowledge of Spice simulations.
Basic knowledge of Matlab and / or Python.
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|
Today, around 30% of all electrical energy generated is transported and distributed through power electronic converters. This proportion is expected to rise to 80% in the coming decades, which translates into an annual power-electronic energy conversion of at least 900 TWh in the EEA region. In addition, the energy sector and its current systems are in transition from fossil-based to zero-carbon emission systems. Modern smart grids and electromobility systems involve an increasing amount of dc technologies that have recently become possible due to rapid advancements in power electronic energy conversion systems. Consequently, Power Electronics is a key area to improve the efficiency of our energy systems, to allow a rapid energy transition, and to contribute to the global decarbonisation.
The Power Electronics course will be given in Lectures and Lab/Exercise sessions as follows:
Lecture (12x2u):
- Components
- Semiconductors
- Magnetics
- Capacitors
- Control chips
- Converter Topologies
- AC-DC: rectifiers, passive as well as active, and for one or more quadrants
- DC-DC: clippers in one or more quandrants, switched capacitor circuits
- DC-AC: inverters that work on the basis of modulation techniques
- AC-AC: cycloconverter, matrix converter
- Resonant topologies
- (Non)Isolated topologies
- Applications
Lab/Exercise (4x3u):
- Simulation exercise with PLECS or LTSpice (Open source)
- Converter design, PCB design, and PCB order
- PCB assembly and Experimental validation
- DC-DC converter testing
- Inductor construction (saturation effect) if possible
- Applications
- Solar
- Motor Drives
- Smart Grids
- EV chargers
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Application Lecture ✔
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Practical ✔
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Period 1 Credits 4,00
| Evaluation method | |
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| Written evaluaton during teaching periode | 30 % |
|
| Other | 10% Quizzes during classes + 20%Reports of the exercises |
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| Written exam | 70 % |
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| Multiple-choice questions | ✔ |
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Second examination period
| Evaluation second examination opportunity different from first examination opprt | |
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| Recommended course material |
| |
Fundamentals of Power Electronics by Robert W. Erickson
Power Electronics: Circuits, Devices, and Applications by Muhammad H. Rashid
Power Electronics by Daniel W. Hart |
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|
|
|
| Master of Energy Engineering Technology (English) | Compulsory | 108 | 4,0 | 108 | 4,0 | Yes | Yes | Numerical | |
|
| | | Learning outcomes |
- EC
| EC1 - The holder of the degree thinks and acts professionally with an appropriate engineering attitude and continuous focus on personal development, adequately communicates, effectively cooperates, takes into account the sustainable, economical, ethical, social and/or international context and is hereby aware of the impact on the environment. | | | - DC
| DC-M8 - The student can evaluate knowledge and skills critically to adjust own reasoning and course of action accordingly. | | | | - BC
| The student is critical about the fields that are involved in the power electronics field. The student is able to understand how power conversion in power converters is done. The student seek for valuable and reliable information about power electronics. The student is critical about her/his own findings and designs, and is able to evaluate their relevance for the application. | - EC
| EC4 - The holder of the degree has advanced knowledge of and insight in the principles and applications in electrical engineering, possibly complemented with automation or material science and production, in which he/she can independently identify and critically analyse complex, practice-oriented design or optimisation problems, and methodologically create solutions with eye for data processing and implementation and with attention to the recent technological developments. | | | - DC
| DC-M3 - The student can recognize problems, plan activities and perform accordingly. | | | | - BC
| The student is able to understand and recognize the problems of designing and implementing power conversion strategies in a wide variety of applications | | | - DC
| DC-M4 - The student can gather, measure or obtain information and refer to it correctly. | | | | - BC
| The student is able to get the information about semiconductors, magnetic materials, windings, capacitors, energy sources, load profiles, control strategies, assembly and testing as well as to understand the importance of these components and materials in power electronics and the energy sector. | | | - DC
| DC-M5 - The student can analyze problems, logically structure and interpret them. | | | | - BC
| The student can analyse the different conversion types, can analyse power converter topologies and the effect of technology selection in the operation of power converters in the field. The student can distinguish and logically interpret how each component in the analyses affect key performance indicators like efficiency, size, cost, etc. | | | - DC
| DC-M6 - The student can select methods and make calculated choices to solve problems or design solutions. | | | | - BC
| The student can calculate and design suitable components based on given parameters, specifications, and conditions. | | | - DC
| DC-M7 - The student can use selected methods and tools to implement solutions and designs. | | | | - BC
| The student is able to implement the power converters and components in a software tool. The student is able to run several study cases and analyse results. | | | - DC
| DC-M8 - The student can evaluate knowledge and skills critically to adjust own reasoning and course of action accordingly. | | | | - BC
| The student is critical about the results obtained by her/his own designs. The student is able to distinguish reliable results and to contrast them with the theory. | - EC
| EC5 - The holder of the degree has specialist knowledge of and insight in principles and applications within the domain of energy and power systems in which he/she can independently identify and critically analyse unfamiliar, complex design or optimisation problems, and methodologically create solutions with eye for data processing and implementation, with the help of advanced tools, aware of practical constraints and with attention to the recent technological developments. | | | - DC
| DC-M3 - The student can recognize problems, plan activities and perform accordingly. | | | | - BC
| The student is able to recognize the role of power electronics in the current energy transition, their current challenges, and the trends towards the future electric systems. The student us able to plan and perform accordingly. | | | - DC
| DC-M4 - The student can gather, measure or obtain information and refer to it correctly. | | | | - BC
| The student is able to gather reliable information about the components that are used in power conversion systems, as well as the enrgy sources and loads that the power converter will interconnect. | | | - DC
| DC-M5 - The student can analyze problems, logically structure and interpret them. | | | | - BC
| The student understands how electrical energy is used and converted in a power converter, how each component works, and how all of them contribute to power conversion. The student can analyse the energy breakdown among the components, and can logically interpret the points where more energy is consumed. | | | - DC
| DC-M7 - The student can use selected methods and tools to implement solutions and designs. | | | | - BC
| The student is able to design power converters for different profiles, loads and boundary conditions. The student is able to integrate such designs in software tools and obtain reliable results. | | | - DC
| DC-M8 - The student can evaluate knowledge and skills critically to adjust own reasoning and course of action accordingly. | | | | - BC
| The student is critical about the results obtained from the software tools. The student is able to contrast the results with the theoretical and literature counterparts. |
|
| | EC = learning outcomes DC = partial outcomes BC = evaluation criteria |
|
|
Today, around 30% of all electrical energy generated is transported and distributed through power electronic converters. This proportion is expected to rise to 80% in the coming decades, which translates into an annual power-electronic energy conversion of at least 900 TWh in the EEA region. In addition, the energy sector and its current systems are in transition from fossil-based to zero-carbon emission systems. Modern smart grids and electromobility systems involve an increasing amount of dc technologies that have recently become possible due to rapid advancements in power electronic energy conversion systems. Consequently, Power Electronics is a key area to improve the efficiency of our energy systems, to allow a rapid energy transition, and to contribute to the global decarbonisation.
The Power Electronics course will be given in Lectures and Lab/Exercise sessions as follows:
Lecture (12x2u):
- Components
- Semiconductors
- Magnetics
- Capacitors
- Control chips
- Converter Topologies
- AC-DC: rectifiers, passive as well as active, and for one or more quadrants
- DC-DC: clippers in one or more quandrants, switched capacitor circuits
- DC-AC: inverters that work on the basis of modulation techniques
- AC-AC: cycloconverter, matrix converter
- Resonant topologies
- (Non)Isolated topologies
- Applications
Lab/Exercise (4x3u):
- Simulation exercise with PLECS or LTSpice (Open source)
- Converter design, PCB design, and PCB order
- PCB assembly and Experimental validation
- DC-DC converter testing
- Inductor construction (saturation effect) if possible
- Applications
- Solar
- Motor Drives
- Smart Grids
- EV chargers
|
|
|
|
|
|
|
|
|
Application Lecture ✔
|
|
|
|
Practical ✔
|
|
|
|
Period 1 Credits 4,00
| Evaluation method | |
|
| Written evaluaton during teaching periode | 30 % |
|
| Other | 10% Quizzes during classes + 20%Reports of the exercises |
|
|
|
|
|
| Written exam | 70 % |
|
|
| Multiple-choice questions | ✔ |
|
|
|
|
|
|
|
Second examination period
| Evaluation second examination opportunity different from first examination opprt | |
|
|
|
| Recommended course material |
| |
Fundamentals of Power Electronics by Robert W. Erickson
Power Electronics: Circuits, Devices, and Applications by Muhammad H. Rashid
Power Electronics by Daniel W. Hart |
|
|
|
|
|
| Master of Teaching in Sciences and Technology - Engineering and Technology choice for subject didactics engineering & technology | Optional | 108 | 4,0 | 108 | 4,0 | Yes | Yes | Numerical | |
|
| | | Learning outcomes |
- EC
| 5.2. The master of education is a domain expert ENG & TECH: the EM has a specialised knowledge and understanding of the acquired subject didactics and can creatively conceive, plan and implement them in an educational context and, in particular, as an integrated part of a methodologically and project-based ordered series of actions within a multidisciplinary STEM project with an important research and/or innovation component. | - EC
| 5.3. The master of education is a domain expert ENG & TECH: the EM has advanced or specialised knowledge and understanding of the principles, structure and used technologies of various industrial processes and techniques relevant to the specific subject disciplines and can autonomously recognise, critically analyse and methodically and well-foundedly solve complex, multidisciplinary, non-familiar, practice-oriented design or optimisation problems in these, with an eye for application, selection of materials, automation, safety, environment and sustainability, aware of practical limitations and with attention to current technological developments. |
|
| | EC = learning outcomes DC = partial outcomes BC = evaluation criteria |
|
|
Basic knowledge of calculation of electrical and magnetic circuits.
Basic knowledge of Spice simulations.
Basic knowledge of Matlab and / or Python.
|
|
|
|
Today, around 30% of all electrical energy generated is transported and distributed through power electronic converters. This proportion is expected to rise to 80% in the coming decades, which translates into an annual power-electronic energy conversion of at least 900 TWh in the EEA region. In addition, the energy sector and its current systems are in transition from fossil-based to zero-carbon emission systems. Modern smart grids and electromobility systems involve an increasing amount of dc technologies that have recently become possible due to rapid advancements in power electronic energy conversion systems. Consequently, Power Electronics is a key area to improve the efficiency of our energy systems, to allow a rapid energy transition, and to contribute to the global decarbonisation.
The Power Electronics course will be given in Lectures and Lab/Exercise sessions as follows:
Lecture (12x2u):
- Components
- Semiconductors
- Magnetics
- Capacitors
- Control chips
- Converter Topologies
- AC-DC: rectifiers, passive as well as active, and for one or more quadrants
- DC-DC: clippers in one or more quandrants, switched capacitor circuits
- DC-AC: inverters that work on the basis of modulation techniques
- AC-AC: cycloconverter, matrix converter
- Resonant topologies
- (Non)Isolated topologies
- Applications
Lab/Exercise (4x3u):
- Simulation exercise with PLECS or LTSpice (Open source)
- Converter design, PCB design, and PCB order
- PCB assembly and Experimental validation
- DC-DC converter testing
- Inductor construction (saturation effect) if possible
- Applications
- Solar
- Motor Drives
- Smart Grids
- EV chargers
|
|
|
|
|
|
|
|
|
Application Lecture ✔
|
|
|
|
Practical ✔
|
|
|
|
Period 1 Credits 4,00
| Evaluation method | |
|
| Written evaluaton during teaching periode | 30 % |
|
| Other | 10% Quizzes during classes + 20%Reports of the exercises |
|
|
|
|
|
| Written exam | 70 % |
|
|
| Multiple-choice questions | ✔ |
|
|
|
|
|
|
|
Second examination period
| Evaluation second examination opportunity different from first examination opprt | |
|
|
|
| Recommended course material |
| |
Fundamentals of Power Electronics by Robert W. Erickson
Power Electronics: Circuits, Devices, and Applications by Muhammad H. Rashid
Power Electronics by Daniel W. Hart |
|
|
|
|
|
| Exchange Programme Engineering Technology | Optional | 108 | 4,0 | 108 | 4,0 | Yes | Yes | Numerical | |
|
| |
|
|
Basic knowledge of calculation of electrical and magnetic circuits.
Basic knowledge of Spice simulations.
Basic knowledge of Matlab and / or Python.
|
|
|
|
Today, around 30% of all electrical energy generated is transported and distributed through power electronic converters. This proportion is expected to rise to 80% in the coming decades, which translates into an annual power-electronic energy conversion of at least 900 TWh in the EEA region. In addition, the energy sector and its current systems are in transition from fossil-based to zero-carbon emission systems. Modern smart grids and electromobility systems involve an increasing amount of dc technologies that have recently become possible due to rapid advancements in power electronic energy conversion systems. Consequently, Power Electronics is a key area to improve the efficiency of our energy systems, to allow a rapid energy transition, and to contribute to the global decarbonisation.
The Power Electronics course will be given in Lectures and Lab/Exercise sessions as follows:
Lecture (12x2u):
- Components
- Semiconductors
- Magnetics
- Capacitors
- Control chips
- Converter Topologies
- AC-DC: rectifiers, passive as well as active, and for one or more quadrants
- DC-DC: clippers in one or more quandrants, switched capacitor circuits
- DC-AC: inverters that work on the basis of modulation techniques
- AC-AC: cycloconverter, matrix converter
- Resonant topologies
- (Non)Isolated topologies
- Applications
Lab/Exercise (4x3u):
- Simulation exercise with PLECS or LTSpice (Open source)
- Converter design, PCB design, and PCB order
- PCB assembly and Experimental validation
- DC-DC converter testing
- Inductor construction (saturation effect) if possible
- Applications
- Solar
- Motor Drives
- Smart Grids
- EV chargers
|
|
|
|
|
|
|
|
|
Application Lecture ✔
|
|
|
|
Practical ✔
|
|
|
|
Period 1 Credits 4,00
| Evaluation method | |
|
| Written evaluaton during teaching periode | 30 % |
|
| Other | 10% Quizzes during classes + 20%Reports of the exercises |
|
|
|
|
|
| Written exam | 70 % |
|
|
| Multiple-choice questions | ✔ |
|
|
|
|
|
|
|
Second examination period
| Evaluation second examination opportunity different from first examination opprt | |
|
|
|
| Recommended course material |
| |
Fundamentals of Power Electronics by Robert W. Erickson
Power Electronics: Circuits, Devices, and Applications by Muhammad H. Rashid
Power Electronics by Daniel W. Hart |
|
|
|
|
|
1 Education, Examination and Legal Position Regulations art.12.2, section 2. |
| 2 Education, Examination and Legal Position Regulations art.16.9, section 2. |
3 Education, Examination and Legal Position Regulations art.15.1, section 3.
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| Legend |
| SBU : course load | SP : ECTS | N : Dutch | E : English |
|