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Dive into the research topics where Henrik Breder is active.

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Featured researches published by Henrik Breder.


IEEE Transactions on Industry Applications | 2012

Transients in Wind Power Plants—Part II: Case Studies

Babak Badrzadeh; Martin Høgdahl Zamastil; Nand Singh; Henrik Breder; Kailash Srivastava; Muhamad Reza

This is the second part of a two-paper series. The first paper presented the transient modeling methodology for various components of wind power plants (WPPs). This paper presents a general methodology for transient analysis of WPPs and discusses case studies which investigate some of the most important high-frequency interactions between different components of the WPP. The focus has been on switching transients, and lighting transients have been excluded. Transient case studies conducted on a typical WPP are presented which discuss the impact of fast system surges on the performance of the circuit breaker and impact of fast surges caused by the circuit breaker on the adjacent power components. These case studies investigate the opening and closing of the collector grid vacuum circuit breaker for loaded and unloaded conditions. Simulation results provide a close match with the field measurements conducted on a laboratory prototype of a typical WPP. Differences caused by modeling assumptions or insufficient accuracy of measurement devices are highlighted. To understand the most onerous overvoltages that can be experienced in the test system, a couple of additional simulation case studies are reported. These case studies discuss the interruption of inrush current with an unloaded transformer and interruption of a small inductive current following the transformer energization.


ieee industry applications society annual meeting | 2011

Transients in Wind Power Plants - part II: Case studies

Babak Badrzadeh; Martin Hogdahl; Nand Singh; Henrik Breder; Kailash Srivastava; Muhamad Reza

This is the second part of a two-paper series. The first paper presented the transient modeling methodology for various components of wind power plants (WPPs). This paper presents a general methodology for transient analysis of WPPs and discusses case studies which investigate some of the most important high-frequency interactions between different components of the WPP. The focus has been on switching transients, and lighting transients have been excluded. Transient case studies conducted on a typical WPP are presented which discuss the impact of fast system surges on the performance of the circuit breaker and impact of fast surges caused by the circuit breaker on the adjacent power components. These case studies investigate the opening and closing of the collector grid vacuum circuit breaker for loaded and unloaded conditions. Simulation results provide a close match with the field measurements conducted on a laboratory prototype of a typical WPP. Differences caused by modeling assumptions or insufficient accuracy of measurement devices are highlighted. To understand the most onerous overvoltages that can be experienced in the test system, a couple of additional simulation case studies are reported. These case studies discuss the interruption of inrush current with an unloaded transformer and interruption of a small inductive current following the transformer energization.


IEEE Transactions on Power Delivery | 2017

Vacuum Circuit-Breaker Parameter Calculation and Modelling for Power System Transient Studies

Tarik Abdulahovic; Torbjörn Thiringer; Muhamad Reza; Henrik Breder

In this paper, a black-box vacuum circuit-breaker model is developed and its parameters are calculated. The developed model is deterministic and does not include the stochastic behavior of arc interruption. The phenomena, such as the current chopping, high-frequency current quenching capability, and rate of rise of dielectric strength are treated as deterministic and calculated using mean values. The vacuum breaker model is verified using a laboratory test setup, and simulation results show good agreement with the obtained measurements. The withstand voltage of the breaker during appearance of the voltage restrikes shows good agreement with the measurements. Moreover, the magnitude and repetitiveness of the high-frequency transients obtained in simulations are within a 10% margin when compared with measurements.


Archive | 2008

A system for transient overvoltage protection

Ambra Sannino; Henrik Breder; Lars Liljestrand; Svenn-Erik Rafoss; Wojciech Piasecki


Archive | 2013

Method and apparatus for monitoring of a tap changer

Henrik Breder; Lars Jonsson


Archive | 1998

Electric coupling device, electric circuit and method in connection therewith

Hans Bernhoff; Henrik Breder; Jan Isberg; Lars Jonsson; Lars Liljestrand; Stefan Valdemarsson


Archive | 2011

Thermally independent overcurrent tripping device

Marley Becerra; Stefan Valdemarsson; Henrik Breder


Electricity Distribution - Part 2, 2009. CIRED 2009. The 20th International Conference and Exhibition on | 2009

An experimental investigation of switching transients in a wind collection grid scale model in a cable system laboratory

Muhamad Reza; Henrik Breder; Lars Liljestrand; Ambra Sannino; Tarik Abdulahovic; Torbjörn Thiringer


Archive | 1998

Variable electric resistor

Hans Bernhoff; Jan Isberg; Henrik Breder; Lars Jonsson; Stefan Valdemarsson; Lars Liljestrand


Archive | 2014

High Speed Limiting Electrical Switchgear Device

Marley Becerra; Stefan Valdemarsson; Maurizio Curnis; Alessio Bergamini; Henrik Breder

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Muhamad Reza

Delft University of Technology

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Ambra Sannino

Chalmers University of Technology

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Tarik Abdulahovic

Chalmers University of Technology

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Torbjörn Thiringer

Chalmers University of Technology

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