[1] H Christensen. Effect of water radiolysis on corrosion in nuclear reactors. Radiation Physics and Chemistry, 18, 147-158(1981).

[2] P Wang, S Grdanovska, D M Bartels et al. Effect of radiation damage and water radiolysis on corrosion of FeCrAl alloys in hydrogenated water. Journal of Nuclear Materials, 533, 152108(2020).

[3] P L Andresen, J Hickling, A Ahluwalia et al. Effects of hydrogen on stress corrosion crack growth rate of nickel alloys in high-temperature water. Corrosion, 64, 707-720(2008).

[4] J Bai, S Ritter, H P Seifert et al. Stress corrosion cracking initiation and short crack growth behaviour in Alloy 182 weld metal under simulated boiling water reactor hydrogen water chemistry conditions. Corrosion Science, 131, 208-222(2018).

[5] X Wu, X Liu, Z Zhang et al. Some fundamental understandings of Zn-injection water chemistry on material corrosion in pressurized water reactor primary circuit. Corrosion Communications, 6, 52-61(2022).

[6] K Chen, A Mackiewicz, S Virtanen et al. Effect of zinc injection on mitigating stress corrosion cracking initiation of structural materials in light water reactor primary water. Corrosion Reviews, 41, 387-398(2023).

[7] M Simic, P Neta, E Hayon. Pulse radiolysis study of alcohols in aqueous solution. The Journal of Physical Chemistry, 73, 3794-3800(1969).

[8] A Henglein. Radiolytic preparation of ultrafine colloidal gold particles in aqueous solution: optical spectrum, controlled growth, and some chemical reactions. Langmuir, 15, 6738-6744(1999).

[9] R C Newman. Review and hypothesis for the stress corrosion mechanism of carbon steel in alcohols. Corrosion, 64, 819-823(2008).

[10] M Domae, H Kawamura, T Ohira. Development of alternative reductant application in pressurized water reactor primary systems. Journal of Power and Energy Systems, 4, 62-71(2010).

[11] B Stellwag, N Suzuki, A Suzuki et al. Development of methanol water chemistry for BWR plants. VGB Powertech, 88, 85-89(2008).

[12] H Saneshige. Study of the methanol injection in reactor water of BWR plants, 54(2005).

[13] S U Choi, N N Lichtin. The radiolysis of methanol and methanolic solutions. III. The effect of oxygen on the radiolysis of liquid methanol by 60Co γ-rays and by 10B(n,α)7Li recoils. Journal of the American Chemical Society, 86, 3948-3953(1964).

[14] J H Baxendale, P Wardman. The radiolysis of methanol: product yields, rate constants, and spectroscopic parameters of intermediates(1975).

[15] G M Meaburn, F W Mellows, A Reiffsteck. Production of hydrogen in the radiolysis of methanol vapour. Nature, 204, 1301-1302(1964).

[16] J H Baxendale, F W Mellows. The γ-radiolysis of methanol and methanol solutions. Journal of the American Chemical Society, 83, 4720-4726(1961).

[17] A Ekstrom, J L Garnett. Radiolysis of binary mixtures. Part IV. The effect of polycyclic aromatic additives in methanol. Journal of the Chemical Society A: Inorganic, 2416-2418(1968).

[18] L M Theard, M Burton. Radiolysis of liquid methanol and some methanolic salt solutions. The Journal of Physical Chemistry, 67, 59-64(1963).

[19] W R McDonell, A S Newton. The radiation chemistry of the aliphatic Alcohols1, 2. Journal of the American Chemical Society, 76, 4651-4658(1954).

[20] M K Phibbs, B D Darwent. The mercury photosensitized reactions of methyl alcohol. The Journal of Chemical Physics, 18, 495-498(1950).

[21] W R McDonell, S Gordon. Decomposition of methyl alcohol by 60Co gamma radiation. The Journal of Chemical Physics, 23, 208(1955).

[22] H Seki, R Nagai, M Imamura. γ-Radiolysis of a binary mixture of methanol and water. the formation of formaldehyde in the radiolysis of liquid methanol. Bulletin of the Chemical Society of Japan, 41, 2877-2881(1968).

[23] K Toriyama, M Iwasaki. Electron spin resonance studies on radiolysis of crystalline methanol at 4.2 K. Journal of the American Chemical Society, 101, 2516-2523(1979).

[24] F S Dainton, I V Janovsky, G A Salmon. Evidence for the production of an oxidising radical on pulse-radiolysis of methanol. Journal of the Chemical Society D: Chemical Communications, 335-336(1969).

[25] N Getoff, A Ritter, F Schwörer et al. Primary yields of CH3•O and •CH2OH radicals resulting in the radiolysis of high purity methanol. Radiation Physics and Chemistry, 41, 797-801(1993).

[26] J A Wargon, E Williams. Electron spin resonance studies of radical trapping in the radiolysis of organic liquids. I. Evidence for the primary formation of the methoxy radical in methanol. Journal of the American Chemical Society, 94, 7917-7918(1972).

[27] M Shiotani, S Murabayashi, J Sohma. Spin trapping of the short-lived free radicals formed in γ-irradiated alcohols. International Journal for Radiation Physics and Chemistry, 8, 483-495(1976).

[28] J Lind, A Jowko, T E Eriksen. Methoxy radical production in methanol radiolysis. Radiation Physics and Chemistry, 13, 159-163(1979).

[29] F S Dainton, I Janovský, G A Salmon. The radiation chemistry of liquid methanol. I. The oxidizing radical. Proceedings of the Royal Society of London A Mathematical and Physical Sciences, 327, 305-316(1972).

[30] K D Asmus, H Moeckel, A Henglein. Pulse radiolytic study of the site of hydroxyl radical attack on aliphatic alcohols in aqueous solution. The Journal of Physical Chemistry, 77, 1218-1221(1973).

[32] H Seki, M Imamura. Radiolysis yields from γ-irradiated liquid methanol containing nitrous oxide and the effect of acid. The Journal of Physical Chemistry, 71, 870-875(1967).

[33] E Hayon, M Moreau. Electron capture by solutes in the radiolysis of methanol and ethanol. The Journal of Physical Chemistry, 69, 4053-4057(1965).

[34] J Lillie, S A Chaudhri, A Mamou et al. Ionic yields in methanol measured by conductometric pulse radiolysis. The Journal of Physical Chemistry, 77, 597-600(1973).

[35] K N Jha, G R I Freeman. Kinetics of reactions of electrons during radiolysis of liquid methanol. II. Reaction of electrons with liquid alcohols and with water. The Journal of Chemical Physics, 48, 5480-5490(1968).

[36] M Imamura, S U Choi, N N Lichtin. The radiolysis of methanol and methanolic solutions. II. Comparison of radiolysis by Co60 γ-rays and by B10(n,α)Li7 recoils. Journal of the American Chemical Society, 85, 3565-3570(1963).

[37] M Imamura, H Seki. Effect of nitrous oxide on the radiolysis of liquid methanol with the recoils from the B10(n,α)Li7 reaction. Bulletin of the Chemical Society of Japan, 40, 1116-1118(1967).

[38] G R Sunaryoy, M Domae. Numerical simulation on effect of methanol addition on coolant radiolysis in pressurized water reactor. Journal of Nuclear Science and Technology, 45, 1261-1274(2008).

[39] J Lyons. The synergistic effects between radiation chemistry and carbon steel corrosion in the calandria vault and end shield cooling system of a CANDU® reactor(2018).

[40] M Domae, K Hojo, W Sugino. Water chemistry technology of methanol addition in PWR primary systems: Radiolysis of methanol solution at 320 ℃, 45899(2014).

[41] M Domae, H Kawamura, D Akutagawa et al. Corrosion test of 304 stainless steel in hydrazine and methanol solutions at 320℃ under gamma-irradiation and gamma radiolysis of hydrazine and methanol. Journal of Power and Energy Systems, 5, 86-95(2011).

[42] M Domae, K Hojo, W Sugino. Corrosion behavior of Zircaloy-4 in aqueous solution of methanol at 320 ºC under gamma-irradiation. Mechanical Engineering Journal, 1, >TEP0023(2014).