The Experts below are selected from a list of 38370 Experts worldwide ranked by ideXlab platform
Antonello Monti - One of the best experts on this subject based on the ideXlab platform.
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Development of a 4 MW Full-Size Wind-Turbine Test Bench
IEEE Journal of Emerging and Selected Topics in Power Electronics, 2017Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines (WTs) behavior is very time consuming and cost intensive, especially when fault ride-through Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of WTs in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multiphysics power hardware-in-the-loop concept. Different from other Test facilities, the presented Test Bench utilizes a direct-drive prime-mover concept combined with a nontorque-load (NTL) unit to enable the application of highly dynamic stresses at the rotor hub and additionally a power-electronics-based grid emulator. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions including voltage dips is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for WTs.
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Development of a 4 MW full-size wind-turbine Test Bench
2015 IEEE 6th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), 2015Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines behavior is very time consuming and cost intensive, especially when fault ride-through (FRT) Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of wind turbines in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multi-physics hardware in-the-loop (HiL) concept. With the currently installed Test Bench setup, a synchronization of the device-under-Test converters is possible. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for wind turbines.
Nurhan Rizqy Averous - One of the best experts on this subject based on the ideXlab platform.
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Development of a 4 MW Full-Size Wind-Turbine Test Bench
IEEE Journal of Emerging and Selected Topics in Power Electronics, 2017Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines (WTs) behavior is very time consuming and cost intensive, especially when fault ride-through Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of WTs in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multiphysics power hardware-in-the-loop concept. Different from other Test facilities, the presented Test Bench utilizes a direct-drive prime-mover concept combined with a nontorque-load (NTL) unit to enable the application of highly dynamic stresses at the rotor hub and additionally a power-electronics-based grid emulator. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions including voltage dips is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for WTs.
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Development of a 4 MW full-size wind-turbine Test Bench
2015 IEEE 6th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), 2015Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines behavior is very time consuming and cost intensive, especially when fault ride-through (FRT) Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of wind turbines in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multi-physics hardware in-the-loop (HiL) concept. With the currently installed Test Bench setup, a synchronization of the device-under-Test converters is possible. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for wind turbines.
Georg Jacobs - One of the best experts on this subject based on the ideXlab platform.
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Development of a 4 MW Full-Size Wind-Turbine Test Bench
IEEE Journal of Emerging and Selected Topics in Power Electronics, 2017Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines (WTs) behavior is very time consuming and cost intensive, especially when fault ride-through Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of WTs in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multiphysics power hardware-in-the-loop concept. Different from other Test facilities, the presented Test Bench utilizes a direct-drive prime-mover concept combined with a nontorque-load (NTL) unit to enable the application of highly dynamic stresses at the rotor hub and additionally a power-electronics-based grid emulator. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions including voltage dips is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for WTs.
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Development of a 4 MW full-size wind-turbine Test Bench
2015 IEEE 6th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), 2015Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines behavior is very time consuming and cost intensive, especially when fault ride-through (FRT) Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of wind turbines in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multi-physics hardware in-the-loop (HiL) concept. With the currently installed Test Bench setup, a synchronization of the device-under-Test converters is possible. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for wind turbines.
Marco Stieneker - One of the best experts on this subject based on the ideXlab platform.
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Development of a 4 MW Full-Size Wind-Turbine Test Bench
IEEE Journal of Emerging and Selected Topics in Power Electronics, 2017Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines (WTs) behavior is very time consuming and cost intensive, especially when fault ride-through Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of WTs in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multiphysics power hardware-in-the-loop concept. Different from other Test facilities, the presented Test Bench utilizes a direct-drive prime-mover concept combined with a nontorque-load (NTL) unit to enable the application of highly dynamic stresses at the rotor hub and additionally a power-electronics-based grid emulator. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions including voltage dips is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for WTs.
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Development of a 4 MW full-size wind-turbine Test Bench
2015 IEEE 6th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), 2015Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines behavior is very time consuming and cost intensive, especially when fault ride-through (FRT) Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of wind turbines in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multi-physics hardware in-the-loop (HiL) concept. With the currently installed Test Bench setup, a synchronization of the device-under-Test converters is possible. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for wind turbines.
Stefan Kock - One of the best experts on this subject based on the ideXlab platform.
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Development of a 4 MW Full-Size Wind-Turbine Test Bench
IEEE Journal of Emerging and Selected Topics in Power Electronics, 2017Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines (WTs) behavior is very time consuming and cost intensive, especially when fault ride-through Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of WTs in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multiphysics power hardware-in-the-loop concept. Different from other Test facilities, the presented Test Bench utilizes a direct-drive prime-mover concept combined with a nontorque-load (NTL) unit to enable the application of highly dynamic stresses at the rotor hub and additionally a power-electronics-based grid emulator. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions including voltage dips is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for WTs.
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Development of a 4 MW full-size wind-turbine Test Bench
2015 IEEE 6th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), 2015Co-Authors: Nurhan Rizqy Averous, Rik W. De Doncker, Marco Stieneker, Stefan Kock, Cristian Andrei, Alexander Helmedag, Kay Hameyer, Georg Jacobs, Antonello MontiAbstract:The in-field validation of wind turbines behavior is very time consuming and cost intensive, especially when fault ride-through (FRT) Tests are conducted. Full-size wind-turbine Test Benches allow a realistic operation of wind turbines in an artificial environment. Due to the independency of wind and grid conditions, the cost and duration of the Test program and certification can be reduced. This paper presents the development of 4 MW full-size wind-turbine Test Bench following a multi-physics hardware in-the-loop (HiL) concept. With the currently installed Test Bench setup, a synchronization of the device-under-Test converters is possible. Through the measurement results of the Test programs conducted on the Test Bench, the capability of the Test Bench in replicating the field conditions is demonstrated. In addition, a time consuming efficiency measurement can be performed with the reduced duration on the Test Bench. This shows another main benefit of the Test Bench compared to the conventional Test method for wind turbines.
