Welcome to the Reinhausen knowledge base
Welcome to the Reinhausen knowledge base
The Reinhausen knowledge base focusses on electrical power grids and one of their key parts – the transformer. It is ideal for students or professionals from electrical utilities, industrial companies and service providers.
The content ranges from technical fundamentals to applications relevant to practitioners and real expert knowledge.
Electricity grids around the world are changing. Distributed generation from renewables, charging infrastructure, and battery energy storage systems are added to existing networks. Power electronic converters play a major role in these technologies - And they all work internally with Direct Current (DC).
Content:
1. The comeback of low voltage DC grids
2. What are the main advantages of AC and DC power grids?
3. Modern DC-DC conversion technology: Dual Active Bridge Converter
4. What are the different grounding methods in DC grids?
Transformers are crucial electrical components that transfer electrical energy between different circuits. They have made significant progress over the years, revolutionising the energy sector and facilitating the effective transmission and distribution of electricity.
Content:
1. Use and Operation
2. Construction of a transformer
3. Autotransformer
4. Loaded and unloaded transformer
5. Short-circuit voltage and short-circuit current
6. Real transformer and efficiency
7. Transformer calculations
On-load tap-changers (OLTCs) are indispensable in regulating power transformers used in electrical energy networks and industrial applications.
This content explains the technological developments of resistor-type OLTCs and reactor-type OLTCs. The general switching principles for OLTCs are discussed and OLTC applications are presented.
Content:
1. Introduction
2. Switching principle
3. On-load tap-changer applications
4. Design concepts of today’s on-load tap-changers
5. Example of maintenance strategy and operating costs for resistor vacuum-type OLTCs – VACUTAP® VR®, VV® and VM®
6. Selection of on-load tap-changers
7. Conclusions
Transformers are at the heart of modern energy supply systems. Their reliability and durability are crucial for keeping power grids stable and avoiding outages. However, behind their seemingly indestructible facade are many sensitive components that need to be checked and maintained regularly.
Content:
1. What assessment levels are there for the transformer data?
2. What does a visual inspection of a transformer involve?
3. Why is an IR thermography valueable?
4. What are the tasks of transformer oil?
5. What is the task of paper in a transformer?
6. Which important oil characteristics can be analyzed?
7. Why is moisture in oil dangerous for transformers?
8. What does a thermal recording look like when there is a problem with transformers?
9. References
Electricity grids around the world are changing. Distributed generation from renewables, charging infrastructure, and battery energy storage systems are added to existing networks. Power electronic converters play a major role in these technologies - And they all work internally with Direct Current (DC).
Content:
1. The comeback of low voltage DC grids
2. What are the main advantages of AC and DC power grids?
3. Modern DC-DC conversion technology: Dual Active Bridge Converter
4. What are the different grounding methods in DC grids?
Transformers are crucial electrical components that transfer electrical energy between different circuits. They have made significant progress over the years, revolutionising the energy sector and facilitating the effective transmission and distribution of electricity.
Content:
1. Use and Operation
2. Construction of a transformer
3. Autotransformer
4. Loaded and unloaded transformer
5. Short-circuit voltage and short-circuit current
6. Real transformer and efficiency
7. Transformer calculations
On-load tap-changers (OLTCs) are indispensable in regulating power transformers used in electrical energy networks and industrial applications.
This content explains the technological developments of resistor-type OLTCs and reactor-type OLTCs. The general switching principles for OLTCs are discussed and OLTC applications are presented.
Content:
1. Introduction
2. Switching principle
3. On-load tap-changer applications
4. Design concepts of today’s on-load tap-changers
5. Example of maintenance strategy and operating costs for resistor vacuum-type OLTCs – VACUTAP® VR®, VV® and VM®
6. Selection of on-load tap-changers
7. Conclusions
Transformers are at the heart of modern energy supply systems. Their reliability and durability are crucial for keeping power grids stable and avoiding outages. However, behind their seemingly indestructible facade are many sensitive components that need to be checked and maintained regularly.
Content:
1. What assessment levels are there for the transformer data?
2. What does a visual inspection of a transformer involve?
3. Why is an IR thermography valueable?
4. What are the tasks of transformer oil?
5. What is the task of paper in a transformer?
6. Which important oil characteristics can be analyzed?
7. Why is moisture in oil dangerous for transformers?
8. What does a thermal recording look like when there is a problem with transformers?
9. References
