518 / 2022-03-27 10:56:55
Study on electro-thermal coupling characteristics of GIL and it fast calculation method
GIL; fast calculation method; electro-thermal coupling;
终稿
Zehua Wu / Xi'an Jiaotong University
Yutong Zhang / Xi’an Jiaotong University
Sijia Zhu / Xi'an Jiaotong University
Boyuan Cui / China Electric Power Research Institute
Wang Haoran / China electric power research institute
ShengWu Tan / Ltd.;Pinggao Group Co.
Peng Liu / State Key Laboratory of Electrical Insulation and Power Equipment Xi’an Jiaotong University
Zongren Peng / State Key Laboratory of Electrical Insulation and Power Equipment; Xi’an Jiaotong University
Purpose/Aim

In order to meet the requirements of digital transformation of new power system and realize the transparency and visualization of internal characteristics of equipment, Digital twin technology has been widely put forward in the field of equipment design, manufacturing, operation and maintenance. However, because of the slow calculation speed of traditional finite element algorithm under the condition of multi-physical field coupling, it can’t meet the requirements of real-time. Therefore, further research on high-precision fast calculation method for electro-thermal coupling is important so that it can provide support for engineering application.

Experimental/Modeling methods

The simulation model of GIL electro-thermal coupling temperature field is constructed by using the traditional finite element method, and the temperature field distribution under different working conditions is obtained. Through sampling test, the input data set of fast calculation method is obtained. On this basis, the principal component analysis method is used to reduce the model parameters, and the fast calculation model of GIL temperature field is obtained by response surface fitting.

Results/Conclusions

Compared with the finite element method, the error of each node of temperature field distribution obtained by fast calculation model can be kept in a low range. The calculation speed is only at the millisecond level, which greatly improves the efficiency compared with the finite element algorithm which needs several hours of calculation time. The research results can provide reference for the fast calculation of multi-physical field for power equipment.

 
重要日期
  • 会议日期

    09月25日

    2022

    09月29日

    2022

  • 08月15日 2022

    提前注册日期

  • 09月10日 2022

    报告提交截止日期

  • 11月10日 2022

    注册截止日期

  • 11月30日 2022

    初稿截稿日期

  • 11月30日 2022

    终稿截稿日期

主办单位
IEEE DEIS
承办单位
Chongqing University
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