- Chen, Bo Han;
- Goto, Tomotsugu;
- Kim, Seong Jin;
- Wang, Ting Wen;
- Santos, Daryl Joe D;
- Ho, Simon C-C;
- Hashimoto, Tetsuya;
- Poliszczuk, Artem;
- Pollo, Agnieszka;
- Trippe, Sascha;
- Miyaji, Takamitsu;
- Toba, Yoshiki;
- Malkan, Matthew;
- Serjeant, Stephen;
- Pearson, Chris;
- Hwang, Ho Seong;
- Kim, Eunbin;
- Shim, Hyunjin;
- Lu, Ting Yi;
- Hsiao, Yu-Yang;
- Huang, Ting-Chi;
- Herrera-Endoqui, Martín;
- Bravo-Navarro, Blanca;
- Matsuhara, Hideo
To understand the cosmic accretion history of supermassive black holes, separating the radiation from active galactic nuclei (AGNs) and star-forming galaxies (SFGs) is critical. However, a reliable solution on photometrically recognizing AGNs still remains unsolved. In this work, we present a novel AGN recognition method based on Deep Neural Network (Neural Net; NN). The main goals of this work are (i) to test if the AGN recognition problem in the North Ecliptic Pole Wide (NEPW) field could be solved by NN; (ii) to show that NN exhibits an improvement in the performance compared with the traditional, standard spectral energy distribution (SED) fittingmethod in our testing samples; and (iii) to publicly release a reliable AGN/SFG catalogue to the astronomical community using the best available NEPW data, and propose a better method that helps future researchers plan an advanced NEPW data base. Finally, according to our experimental result, the NN recognition accuracy is around 80.29 per cent-85.15 per cent, with AGN completeness around 85.42 per cent-88.53 per cent and SFG completeness around 81.17 per cent-85.09 per cent.