1. Home
  2. Volume 24 Nomor 1 Januari 2021
  3. Saefurrochman

A NOVEL DESIGN OF 17.5 KV HV FEEDTHROUGH FOR ARJUNA 2.0

Saefurrochman Saefurrochman(1), Darsono Darsono(2), Suhadah Rabi’atul Adabiah(3), Elin Nuraini(4), Sutadi Sutadi(5), Tanti Ardiyati(6),


(1) Center for Accelerator Scince and Technology – National Nuclear Energy Agency of Indonesia
(2) Center for Accelerator Scince and Technology – National Nuclear Energy Agency of Indonesia
(3) Center for Accelerator Scince and Technology – National Nuclear Energy Agency of Indonesia
(4) Center for Accelerator Scince and Technology – National Nuclear Energy Agency of Indonesia
(5) Center for Accelerator Scince and Technology – National Nuclear Energy Agency of Indonesia
(6) Center for Nuclear Facilities Engineering - National Nuclear Energy Agency of Indonesia
Corresponding Author

Abstract


A NOVEL DESIGN OF 17.5 KV HV FEEDTHROUGH FOR ARJUNA 2.0. A novel design of the 17.5 kV feedthrough for Arjuna 2.0 Cockcroft Walton generator has been proposed. It is used for connecting the output of RF transformer oscillator (in the outside of horizontal vessel) with the input of voltage multiplier (inside of horizontal vessel) of the Cockcroft Walton generator. It was equipped by covers on left and right side. The designed feedthrough was simple, compact, easy to manufacture, high performance to prevent flashover and also it was applied to Arjuna 2.0 Cockcroft Walton. It was made from teflon (PTFE) and solid copper, which have high dielectric strength, capable of withstanding press loads, and easy to manufacture. The shortest distance between grounding with conductor radially was 43.25 mm, and 253.5 mm for feedthrough surface. The design was verified by Finite Element Method software and continued with performance testing. According to simulation, the stress of voltage is high about 16 kV to 17.5 kV on feedthrough conductor and 0 to 3 kV on feedthrough flange. The electric field of the covered feedthrough is lower than the coverless feedthrough. The highest and lowest electric fields are 1.26 x 106 V/m and 1 x 105 to 2 x 105 V/m respectively. Furthermore, feedthrough has been tested up to 120 kV and no discharge occurred. It means this design can be operated for 17.5 kV and it was successful installed on Arjuna 2.0 Cockcroft Walton generator.

Keywords


Feedthrough;Arjuna 2.0;electric field,;Cockcroft Walton

References


[1] Sutadi, Saefurrochman, E. Nuraini and Suprapto, Journal Physics Conference Series 1436, 012095, pp. 1 – 7, 2020.

[2] S. Ilhan and A. Ozdemir, “Design considerations of a 36 kV silicone rubber wall,” in The 19th International Symposium on High Voltage Engineering, pp. 1 – 5, 2015.

[3] N. Panklang, N. Phankong and K. Bhumkittipich, Energy Procedia 9, pp. 95 – 103, 2011.

[4] N. Umeda, M. Taniguchi, M. Kashiwagi, M. Dairaku, M. Hanada, H. Tobari, K. Watanabe, K. Sakamoto and T. Inoue, Fusion Engineering and Design 84, pp. 1875 – 1880, 2009.

[5] A. Simonin, H. de Esch, L. Doceul, L. Christin, F. Faisse and F. Villecroze, Fusion Engineering and Design 88, pp. 1 – 7, 2013.

[6] H. Tobari, T. Inoue, M. Taniguchi, M. Kashiwagi, N. Umeda, M. Dairaku, H. Yamanaka, K. Watanabe, K. Sakamoto, M. Kuriyama, J. Graceffa, L. Svensson, R. Hemsworth, M. Tanaka and D. Boilson, Fusion Engineering and Design 88 (6-8), pp. 975 – 979, 2013.

[7] S. Shah, D. Sharma, D. Parmar, H. Tyagi, K. Joshi, H. Shishangiya, M. Bandyopadhyay, C. Rotti and A. Chakraborty, Fusion Engineering and Design 113, pp. 6 – 15, 2016.

[8] R. Wang, G. Xu and Y. He, e-Polymers 17 (3), pp. 215 – 220, 2017.

[9] N. Riveiro, T. Abalde, P. Pou, R. Soto, J. del Val, R. Comesana, A. Badaoui, M. Boutinguiza and J. Pou, Applied Surface Science 515, 145984 1 -10, 2020.

[10] N. A. Rahman, M. Isa, M. N. K. H. Rohani, H. A. Hamid and M. M. A. B. Abdullah, Universal Journal of Electrical and Electronic Engineering 6 (5A), pp. 86 – 93, 2019.

[11] M. Hassani, S. S. K. Madahi, H. F. Farahani and H. Sarabadani, Applied Mechanics and Materials 110-116, pp. 5184 – 5188, 2012.

[12] Y. H. Yeon, M. Ghergherehchi, X. Mu, K. M. M. Gad and J. S. Chai, Nuclear Instruments and Methodsin Physics Research A 763, pp. 510 – 516, 2014.

[13] E. Ebrahimibasabi and S. A. H. Feghhi, International Journal of Mass Spectrometry 386, pp. 1 – 5, 2015.

[14] W. Lick, “Experiences in testing of AC and DC Bushings,” in The 2013 Electrical Insulation Conference, pp. 304 – 307, 2013.

[15] N. A. Rahman, M. Isa, M. N. K. H. Rohani, H. A. Hamid and M. M. A. B. Abdullah, IOP Conference Series 551, 012019, pp. 1 – 5, 2019.

[16] L. Jin, Y. Xue, B. Zhao, J. Chen and W. Zhang, “Electric field calculation and insulation analysis of high voltage insulating bushing,” in The 2nd International Conference on Electric Power Equipment – Switching Technology (ICEPE – ST), pp. 1 – 4, 2013.


Full Text: PDF

DOI: 10.17146/gnd.2021.24.1.6223

Copyright (c) 2021 GANENDRA Majalah IPTEK Nuklir

Creative Commons License
This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.