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| Detailinformationen |
| Quellcurriculum |
Masterstudium Digital Energy Solutions 2026W |
| Lernergebnisse |
Kompetenzen |
| (*)Students can analyse, design, and evaluate energy storage systems according to international and national standards. They understand the technical and chemical fundamentals of energy conversion and the characteristics of different battery technologies, including capacitor batteries, lithium-ion batteries, traction and storage batteries (lead, nickel, sodium), high-energy batteries, and redox-flow batteries. They are able to select, implement, and monitor appropriate battery systems for various applications, integrate them into energy systems, apply relevant legal and regulatory frameworks, and continuously improve system performance, safety, and efficiency while considering the operational and application-specific requirements of each battery technology.
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| Fertigkeiten |
Kenntnisse |
(*)- Understand the fundamentals of energy conversion and the chemical and physical principles underlying different battery technologies (K2)
- Analyse the characteristics, performance, and application areas of capacitor batteries, lithium-ion batteries, traction and storage batteries (lead, nickel, sodium), high-energy batteries, and redox-flow batteries (K4)
- Understand and apply principles of system integration for energy storage solutions, including sizing, configuration, and interoperability with other energy systems (K2, K3)
- Evaluate safety aspects, operational limits, and regulatory requirements associated with the use of different battery technologies (K5)
- Understand the environmental, economic, and technical implications of selecting appropriate battery technologies for specific applications (K2)
- Analyse the lifecycle, efficiency, and maintenance requirements of various energy storage systems to optimize performance and reliability (K4)
- Understand legal and framework conditions affecting battery deployment, including standards, certifications, and national/international regulations (K2)
- Apply principles of energy system planning to integrate battery technologies effectively into renewable energy or hybrid energy systems (K3)
- Evaluate the advantages and limitations of different battery technologies for stationary and mobile applications and provide recommendations for technology selection (K5)
- Understand the state of current knowledge and recent developments in battery technologies to inform design, operation, and innovation in energy storage systems (K2, K6)
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(*)- Basic principles and processes of energy conversion
- Design and characteristics of capacitor batteries and their applications
- Chemical and electrochemical principles of lithium-ion batteries and their performance parameters
- Specific properties of traction and storage batteries, including lead, nickel, and sodium-based technologies
- Characteristics and applications of high-energy batteries for different sectors
- Functionality and design of redox-flow batteries and their integration into energy systems
- Application ranges and limitations of various battery technologies in mobility, storage, and grid applications
- System integration aspects of battery storage technologies in energy networks
- Legal and regulatory frameworks for the deployment and operation of battery systems
- Safety standards and guidelines for battery technology usage and integration
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| Beurteilungskriterien |
(*)Final exam
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| Lehrmethoden |
(*)Lecture, discussion, course material, exercise examples
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| Abhaltungssprache |
Englisch |
| Literatur |
(*)Course materials (presentation slides) are made available via Moodle
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| Lehrinhalte wechselnd? |
Nein |
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