Solid state circuit breaker in DC network
DC Microgrids are becoming more popular in the power industry, and renewable energy is leading the way. However, every power system requires a protection system to guard against overloads and short circuits. Electrical circuit breakers play a crucial role in ensuring safety and dependability. But tr...
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2024
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sg-ntu-dr.10356-1769292024-05-24T15:44:08Z Solid state circuit breaker in DC network Ho, Darren Zhan Rong Amer M. Y. M. Ghias School of Electrical and Electronic Engineering Amer amer.ghias@ntu.edu.sg Engineering DC Microgrids are becoming more popular in the power industry, and renewable energy is leading the way. However, every power system requires a protection system to guard against overloads and short circuits. Electrical circuit breakers play a crucial role in ensuring safety and dependability. But traditional mechanical circuit breakers have some drawbacks, including slow response times, short lifespans, and susceptibility to mechanical wear and tear. To overcome these issues, Solid State Circuit Breakers (SSCBs) that use semiconductor technology are a viable alternative. To address this problem, we will research and develop Solid-State Circuit breakers. These breakers are built using semiconductor switches, which have a faster breaking response time and longer lifespan compared to traditional mechanical circuit breakers. They also offer silent breaking technology since there are no moving parts in the system. Our project will aim to simulate the SSCB topology to identify a simple and efficient circuit. We will then build and test the system on a scaled-down version to demonstrate its feasibility and performance advantages over conventional mechanical circuit breakers. Through experimentation and analysis, we aim to prove the effectiveness of SSCBs in terms of response time, reliability, and scalability. Bachelor's degree 2024-05-21T04:50:07Z 2024-05-21T04:50:07Z 2024 Final Year Project (FYP) Ho, D. Z. R. (2024). Solid state circuit breaker in DC network. Final Year Project (FYP), Nanyang Technological University, Singapore. https://hdl.handle.net/10356/176929 https://hdl.handle.net/10356/176929 en A1007-231 application/pdf Nanyang Technological University |
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DC Microgrids are becoming more popular in the power industry, and renewable energy is leading the way. However, every power system requires a protection system to guard against overloads and short circuits. Electrical circuit breakers play a crucial role in ensuring safety and dependability. But traditional mechanical circuit breakers have some drawbacks, including slow response times, short lifespans, and susceptibility to mechanical wear and tear. To overcome these issues, Solid State Circuit Breakers (SSCBs) that use semiconductor technology are a viable alternative.
To address this problem, we will research and develop Solid-State Circuit breakers. These breakers are built using semiconductor switches, which have a faster breaking response time and longer lifespan compared to traditional mechanical circuit breakers. They also offer silent breaking technology since there are no moving parts in the system.
Our project will aim to simulate the SSCB topology to identify a simple and efficient circuit. We will then build and test the system on a scaled-down version to demonstrate its feasibility and performance advantages over conventional mechanical circuit breakers. Through experimentation and analysis, we aim to prove the effectiveness of SSCBs in terms of response time, reliability, and scalability. |
author2 |
Amer M. Y. M. Ghias |
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Amer M. Y. M. Ghias Ho, Darren Zhan Rong |
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Final Year Project |
author |
Ho, Darren Zhan Rong |
author_sort |
Ho, Darren Zhan Rong |
title |
Solid state circuit breaker in DC network |
title_short |
Solid state circuit breaker in DC network |
title_full |
Solid state circuit breaker in DC network |
title_fullStr |
Solid state circuit breaker in DC network |
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Solid state circuit breaker in DC network |
title_sort |
solid state circuit breaker in dc network |
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Nanyang Technological University |
publishDate |
2024 |
url |
https://hdl.handle.net/10356/176929 |
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1800916389476696064 |