[1] Deshon J. PWR axial offset anomaly (AOA) guidelines, revision 1: 1008102[R](2004).

[2] Seo S, Chae N, Park S et al. Modeling of deposition and erosion of CRUD on fuel surfaces under sub-cooled nucleate boiling in PWR[J]. Nuclear Engineering and Technology, 55, 2591-2603(2023).

[3] MENG Shuqi, HU Yisong, LI Changying et al. A CIPS risk evaluation methodology applicable for PWR[J]. Nuclear Techniques, 44, 090601(2021).

[4] Tsai T L, Su T Y, Wang T Y et al. Characterization of crud deposited on fuel rods under HWC environment in Kuosheng Nuclear Power Plant[J]. Nuclear Science and Techniques, 27, 1(2016).

[5] Yang J Q, Wang J H, Liu J K et al. Microstructural understanding on the fouling behavior of crud on PWR fuel cladding surface[J]. Journal of Nuclear Materials, 582, 154500(2023).

[6] MENG Shuqi, HU Yisong, RUAN Tianming. Impact of nickel and iron on PWR zirconium alloy surface CRUD formation and boron precipitation[J]. Nuclear Techniques, 45, 060602(2022).

[7] HU Yisong, MAO Yulong, HU Yousen et al. Effect of Zinc injection on the surface CRUD of PWR zirconium alloy[J]. Nuclear Techniques, 45, 090604(2022).

[8] Yeon J W, Jung Y, Pyun S I. Deposition behaviour of corrosion products on the Zircaloy heat transfer surface[J]. Journal of Nuclear Materials, 354, 163-170(2006).

[9] Rocher A, Bretelle J L, Berger M. Impact of main radiological pollutants on contamination risks (ALARA) optimization of physico chemical environment and retention technics during operation and shutdown[C](2003).

[10] QIU Bin, MAO Yulong, YAN Yalun et al. Study of corrosion products deposition and primary circuit source term levels in hybrid core[J]. Nuclear Science and Engineering, 43, 25-29(2023).

[11] HU Wenchao, HAN Jingru, LI Tieping et al. Sensitivity of 58Co and 60Co for activated corrosion products source terms in pressurized water reactor[J]. Nuclear Power Engineering, 38, 47-50(2017).

[12] Kang S, Sejvar J. CORA-II model of PWR corrosion-product transport[R]. EPRI NP-4246(1985).

[13] Lindsay T. Correlation of iron solubility from nickel ferrites[R](1988).

[14] Berger F P, Hau K F F L. Mass transfer in turbulent pipe flow measured by the electrochemical method[J]. International Journal of Heat and Mass Transfer, 20, 1185-1194(1977).

[15] Notter R H, Sleicher C A. The eddy diffusivity in the turbulent boundary layer near a wall[J]. Chemical Engineering Science, 26, 161-171(1971).

[16] Jancic S J, Grootscholten P A M[M]. Progress in crystal growth and characterization, 434(1984).

[17] Beal S K. Deposition of particles in turbulent flow on channel or pipe walls[J]. Nuclear Science and Engineering, 40, 1-11(1970).

[18] Hussain C I, Newson I H, Bott T R. Diffusion controlled deposition of particulate matter from flowing slurries[C](1986).

[19] Beal S K. Correlations for the sticking probability and erosion of particles[J]. Journal of Aerosol Science, 9, 455-461(1978).

[20] Best S E. Characterization of the MIT research reactor for fusion reactor related studies[D]. Department of Nuclear Engineering(1979).

[21] Polley M V, Pick M E. Paper 21. Iron, nickel and chromium mass balances in Westinghouse PWR primary circuits[M]. Water chemistry of Nuclear Reactor Systems 4, 63-70(1986).

[22] Wicks J H. Design, construction and testing of an in-pile loop for PWR simulation[D](1987).

[23] Bergmann C A, Durkosh D E, Lindsay W T et al[M]. The role of coolant chemistry in PWR radiation-field buildup, 2-18(1985).

[24] LIU Xinfu. Influence of primary water chemistry of PWR on the integrity of fuel cladding[D](2007).