Oxidation of vanadium at high temperature. Price, Stringer, J., J. less-common Metals, 1965, 8, 165
62.
Mechanism of the high-temperature oxidation of iron-chromium alloys in water vapour. Fujii, C. T., & Meussner, electrochem. Soc., 1965, 111, 1215
63.
Mechanism of oxidation of zirconium in the temperature range400–8500. HusseyR. J., & SmeltzerW. W., J. electrochem. Soc., 1964. 111, 1221
64.
Scaling of Fe-26Cr alloys at 870-1200°. Caplan, D., & Cohen, M., J. electrochem. Soc. 1965, 112, 471
65.
Oxidation of nickel in the temperature range 900-14W. Fueki, K., & Wanger, J. B., J. electrochem. Soc., 1965, 112, 384
66.
Effect of oxygen pressure on the oxidation of zone-refined iron. Boggs, W. E., Kachik, R. H., & Pellissier, G. E., J. electrochem. Soc., 1965, 112, 539
67.
Molybdenum oxidation kinetics at high temperatures. Bartlett, R. W., J. electrochem. Soc., 1965, 112, 744
68.
High-temperature corrosion of oil-fired boilers. Poczok, I., Werkstoffe Korros., 1965, 16, 657
69.
High-temperature corrosion tests with different heat-resistant materials in an oil/gas fired industrial boiler. John, E., Werk-stoffe Korros., 1965, 16, 761
70.
Some viewpoints on high-temperature corrosion with the combus-tion of gas, coal and oil. Rahmel, A., Werkstoffe Korros., 1965, 16, 776
71.
Mechanism of metal oxidation at high temperatures. Hauffe, K., Werkstoffe Korros., 1965, 16, 791
72.
Oxidation of irradiated beryllium in carbon dioxide.Bennett, M. J., et al., J. nucl. Mater., 1965, 17, 60
73.
High temperature oxidation of chrome and Ni-Cr steels in air and in an atmosphere of low oxygen content. Decroix, J., App!. Mater. Res., 1964, 3, 35
74.
KineticsMicrostructures and Mechanism of Internal Oxidation. Rapp, R. A., Corrosion, 1965, 21, 382
75.
Oxidation data of chromium and 80Mi-2200Cr heater alloys. Evans, E. B., Corrosion, 1965, 21, 274
76.
Passivity
77.
Passivity of nickel in acid solution. Markovic, T., & Ahmedbasic, M., Werkstoffe Korros., 1965, 16, 212
78.
Passivity of metal in neutral and alkaline solutions. Markovic, T., Werkstoffe Korros., 1965, 16, 570
79.
New data on mechanism of passivation. Novakovsky, V. M., & Lichachev, I. A., Zashch. Metallov., 1965, 1, 13
80.
Passivity of molybdenum. Posdeeva, A. A., Antonovskaya, E. J., & Suchotin, A. M., Zashch. Metallov., 1965, 1, 20
81.
Some aspects of the metal passivity mechanism.Krasilschikov, A. I., Zashch. MetaUov., 1965, 1, 150
82.
Influence of anions on passivation of iron in neutral solutions.Freiman, L. I., & Kolotyrkin, Ya. M., Zashch. MetaUov., 1965, 1, 161
83.
Structural corrosion and passivation of iron.Freiman, L. I., Kolotyrkin, Ya. M., & Giventahl, A. Ya., Zashch. MetaUov., 1965, 1, 286
84.
Anodic polarisation behaviour of nickel-chromium alloys in sulphuric acid solutions.Myers, J. B., Beck, F. H., & Fontana, M. G., Corrosion, 1965, 21, 277.
85.
Relationships between anodic passivity brightening and pitting.Hoar, T. P., Mears, D. C., & Rothwell, G. P., Corros. Sci., 1965, 5, 279
86.
Electrochemical assessment of chromium in passivation films on tin plate.Britton, S. C., Br. Corr. I., 1965, 1, 91.
87.
Inhibition
88.
Theory of organic corrosion inhibitors-adsorption and linear free-energy relationships. Donahue, F. M., & Nobe, K., J. electro-chem. Soc., 1965, 112, 886
89.
Organic inhibitors of lead corrosion in soft water. Myagkova, A. R., & Putilova, I. N., J. app!. Chem., USSR, 1964, 37, 2601(Eng. Tr.), 2636 (Russian)
90.
An inhibitor of acid corrosion. Chen, N. G., J. appl. Chem., USSR, 1964, 37, 1942 (Eng. Tr.), 1958(Russian)
91.
Anticorrosive action in the vapour phase of various inhibitive products. Ardos, E., Corros. Anti-Corros., 1965, 13, 72
92.
Corrosion inhibitors. IV. Suppression of the dissolution of aluminium by organic substances in acid and alkaline solutions. Horner, L., et al., Werkstoffe Korros., 1965, 16, 36
93.
Influence of anion absorption on the corrosion inhibition of iron and cobalt in acid solutions. Iofa, Z. A., Batrakov, V. V., & Ngok Ba, H. 0., Zashch. Metallov., 1965, 1, 55
94.
Use of bimetallic glassy phosphates for corrosion control. Kleber, J. P., J. Am. Wat. Wks Ass., 1965, 57, 783
95.
Action of adsorptive inhibitors in some corrosive systems. Ives, M. B., Ind. Engng Chem., 1965, 57, 34
96.
Inhibitive properties of the pertechnetate ion. Spitsin, V. I., et. al., Corrosion, 1965, 21, 211
97.
Inhibition of the corrosion of iron on the pH range6–9. GilroyD., & MayneJ. E. O., Br. Corr. J., 1965, 1, 107
98.
Stainless steel
99.
Study of electrochemical phenomena arising from the precipitation of carbides in various18–8stainless steels. Voeltzel, J., Métaux Corros. Inds, 1965, 40, 91, 158, 202 (In 3 parts)
100.
Corrosion of austenitic chromium-nickel steels at high anodic potentials and their connection with susceptibility to inter-crystalline corrosion. Schwenk, W., & Ternes, H., Arch. Eisenhutt Wes., 1965, 36, 99
101.
Polarisation resistance as a corrosion test for stainless steel in sulphuric acid. Butler, T. J., & Carter, P. R., Electrochem. Technol., 1965, 3, 157
102.
Various aspects of the corrosion resistance of high purity18–10stainless steels. Cunha, M., et al., Corros. Anti-Corros., 1964, 12, 297
103.
Corrosion resistance of stainless steels in the atmosphere. Experi-ences from Great Britain and the United States. Evans, T. E., Werkstoffe Korros., 1964, 15, 797
104.
Corrosion resistance of stainless steels in the atmosphere. Experi-ence in Germany. Jannsen, K., & Moser, R., Werkstoffe Korros., 1964, 15, 804
105.
Influence of the lattice structure on the corrosion of an 18/10 chrome nickel steel. Buhler, H. E., & Schwenk, W., Werkstoffe Korros., 1964, 15, 909
106.
Stainless steels for chemical technology. Present position and recent developments. Oppenheim, R., Werkstoffe Korros., 1965, 16, 1
107.
Dependence on temperature and concentration of the stress corro-sion cracking of austenitic Cr-Ni steels in MgCl2 solution. Kohl, H. Werkstoffe Korros., 1965, 16, 364
108.
New stainless steels for chemical equipment. Jesper, H., & Wesseling, W., Werkstoffe Korros., 1965, 16, 453
109.
Electrochemical mechanisms of intergranular corrosion of stainless steels and methods of its determination. Kossyi, G. G., & Kuzub, V. S., Zashch. Metallov., 1965, 1, 42
110.
Influence of alloy age on the resistance of austenitic steels against the corrosion cracking in concentrated solutions of chlorides.Ryabchenkov, A. V., & Gerasimov, V. I., Zashch. Metallov., 1965, 1, 48
111.
Influence of fluorine ions on the electrochemical and corrosion behaviour of stainless steels. Zinman, A. I., Kuzuls, V. S., & Socolova, L. A., Zashch. Metallov., 1965, 1, 173
112.
Intergranular corrosion of non-sensitised austenitic stainless steels. Armijo, J. S., Corrosion, 1965, 21, 235
113.
Corrosion of stainless steel of the 1Crl 8Ni9Ti type in acid mixtures. Rosenfeld, I. L., Novitskata, M. A., & Selezneva, T. A., Zashch. Metallov., 1965, 1, 265
114.
Decrease in passivation current of 1Crl 8Ni9Ti steel in presence of organic compounds. Grigoryev, V. P., Zashch. Metallov., 1965, 1, 280
115.
Anodic protection of stainless steel in the protection of stainless steels in the production of complex fertilisers containing potassium chloride. Kuzub, L. G., et al., Zashch. Metallov., 1965, 1, 396
116.
Electrochemical investigation of the influence of carbon, titanium and manganese contents on the corrosion resistance of Cr-Ni-Mn stainless steels. Knyazheva, V. M., et al., Zashch. Metallov., 1965, 1, 465
117.
Passivation and breakdown of passivity on steel constructions in concrete. Moskvin, V. M. Alexeyev, S. N., & Novgorodski, V.I., Zashch. Metallov. 1965, 1, 558
118.
Corrosion of stainless steels by zinc vapour. Bennett, G. A., Nelson, P. A., & Burns, L., Trans. AIME, 1965, 233, 1032
119.
Cathodic protection
120.
Protection of ships with calcium-containing anodes. Pechent-kovski, E. L., Zashch. Metallov., 1965, 1, 401
121.
Behaviour of high-strength steels under cathodic protection. McEowen, J. L., & Elsen, A. R., Corrosion, 1965, 21, 28
122.
Microbiological corrosion
123.
Relationships between natural microbial corrosion and fungus tests in the laboratory. Rychtera, E., & Niederfuhrova, E., Werkstoffe Korros., 1965, 16, 116
124.
Investigations into iron corrosion caused by bacteria. Frenzel, H. J., Werkstoffe Korros., 1965, 16, 651
125.
Pipeline corrosion inhibited by a bactericide. Punkiss, B. E., & Cameron, R. W. N., Gas. J., 1965, 323, 297
126.
Effect of inhibitors on sulphate-reducing bacteria: a compilation.SalehA. M.MacPhersonR., & MillerJ. D. A., J. appl. Bad., 1964, 27, 28l
127.
Stress, cracking, and hydrogen embrittlement
128.
Effect of carbon, nitrogen, aluminium and titanium content on intercrystalline stress corrosion in plain carbon steels. Munster, R., & Grafen, H., Arch. Eisenhutt Wes., 1965, 36, 277
129.
Contribution to the problem of intercrystalline stress corrosion of mild steels in alkali solutions. Grafen, H., & Kuron, D., Arch. Eisenhutt Wes., 1965, 36, 285
130.
Role of absorbed CN groups in the hydrogen embrittlement of steel. Beck, W., Glass, A. L., & Taylor, E. J., J. electrochem. Soc., 1965, 112, 53
131.
Intergranular corrosion penetration in an age-hardenable alumin-ium alloy. Nichols, H., & Rostoker, W., J. electrochem. Soc., 1965, 112, 108
132.
Corrosion cracking of Mg-Al-Zn-Mn alloy in different media. Zaretskii, E. M., J. appl. Chem., USSR, 1964, 37, 1498
Cracking of steel due to corrosion in aggressive media. Smialowski, M., Corros. Anti-Corros., 1965, 13, 170
135.
Synopsis of stress-corrosion cracking. I. The importance of stress corrosion cracking in industrial practice. Class I.Werkstoffe Korros., 1965, 16, 277; IL Considerations of a fundamental nature on the problem of stress corrosion cracking. Ibid., p. 288
136.
Moisture and stable crack growth in a high-strength steel. John-son, H. H., & Milner, A. M., Appl. mater. Res., 1965, 4, 34
137.
Analysis of the early stages of the hydrogen attack on steel. Allen, R. E., Diss. Abstr., 1965, 25, 5847
138.
Mechanism of stress corrosion cracking in austenitic stainless steels. Saxena, M. N., Diss. Abstr., 1965, 25, 5849
139.
Possibility of service failure of stainless steels by stress corrosion cracking.Truman, J. E., & Kirkby, H. W., Metallurgia, 1965, 72, (8), 67
140.
Some aspects of the fatigue process in low-carbon steel. Klensil, M., et al., J. Iron Steel Inst., 1965, 203, 47
141.
Effect of contaminants on resistance to stress-corrosion cracking of Ni-Cr Alloy 600. Copson, H. R., & Dean, S. W., Corrosion, 1965, 21, 1
142.
Initial stages of stress-corrosion cracking in austenitic stainless steels. Louthan, M. R., jun., Corrosion, 1965, 21, 288
143.
Threshold stress and incubation period in stress corrosion of types 302 and 316 wire in boiling magnesium chloride. Krafft, G. H. G., et al., Corrosion, 1965, 21, 188
144.
Stress corrosion cracking of face-centered-cubic alloys. Tromans, D., & Nutting, J., Corrosion, 1965, 21, 143
145.
Stress corrosion behaviour of managing nickel steels in natural environments. Dean, S. W., & Copson, H. R., Corrosion, 1965, 21, 95
146.
Hydrogen embrittlement of austenitic stainless steel. Whiteman, M. B., & Troiane, A. R., Corrosion, 1965, 21, 53
147.
Resistance to stress corrosion cracking of some Cr-Ni-Fe austenitic steels and alloys. Truman, J. E., & Perry, R., Br. Corr. J., 1965, 1, 60
148.
Propagation of stress corrosion cracks in austenitic stainless steels. West, J. M., & Fairman, L., Br. Corr. J., 1965, 1, 67
149.
Origin of delay time in stress corrosion cracking of austenitic stainless steels. Uhlig, H. H., & Sara, J. P., Corros. Scl., 1965, 5, 291
150.
Pitting
151.
Thermodynamical theory of pitting corrosion. Wetter, K. J., Ber. Bunsen Ges. phys. Chem., 1965, 69, 683
152.
Accelerated methods for evaluating the probability of pitting corrosion of copper in natural waters. Effects of copper in contact with another metal or graphite. Van Laer, P., et al., Cebelcor Rapp. Tech., 1965, No.128
153.
Electrochemical characteristics of corrosion pits on copper in natural waters and chloride solutions. Van Muylder, P., Poubaix, M., & van Laer, P., Cebelcor Rapp. Tech., 1965, No.127
154.
Relation between anodic dissolution and resistance to pitting corrosion. Greene, M. D., & Judd, G., Corrosion, 1965, 21, 15
155.
Corrosion products
156.
Study of the decomposition of ferrous oxide. Erai, T., Metaux Corros. Inds, 1965, 40, 221, 328 (two parts)
157.
Waters, including high-temperature water and steam
158.
Corrosion of steels and nickel alloys in super-heated steam. Ruther, W. E., & Greenberg, S., J. electrochem. Soc., 1964, 111, 1116
159.
Steel corrosion mechanisms-growth and breakdown of protective films in high-temperature aqueous solutions. Bloom, M. C., Newport, G. N., & Fraser, W. A., J. electrochem. Soc., 1964, 111, 1343
160.
Effect of surface treatment on the corrosion of stainless steels in high-temperature water and steam. Warzec, M., et al., J. electrochem., Soc., 1965, 112, 670
161.
The problem of natural water corrosion.Girard, R., Corros. Anti-Corros., 1964, 12, 347
162.
Corrosion of low alloyed steels in demineralised water at25 and 360. Effect of oxygen. Coriou, H., et al., Corros. Anti-Corros., 1964, 12, 358
163.
Aqueous corrosion problems in the field of nuclear energy.Coriou, H., Corros. Anti-Corros., 1965, 13, 55
164.
Corrosion control in a water-cooled stator.Wall, K. H., & Davies, I., J. apple Chern., Lond., 1965, 15, 389
165.
Influence of movement and temperature on corrosion of mild steel.II. High-purity water. Butler, G., & Stroud, E. G., J. appl. Chem., Lond., 1965, 15, 325; II. Chloride solutions. Butler, G., & Stroud, E. G., Br. Corr. J., 1965, 1, 110
166.
Corrosion of mild steel in tidal waters of the Thames estuary.II. Results of two years’ immersion. Booth, G. H., Cooper, A. W., & Tiller, A. K., J. apple Chem., Lond., 1965, 15, 250
167.
Fast linear growth of magnetite on mild steel in high temperature aqueous conditions.Potter, E. C., & Mann, G. M. W., Br. Corr. J., 1965, 1, 15
168.
Aluminium in fresh waters.Bell, Winifred A., & Campbell, H. C., Br. Corr. J., 1965, 1, 72
169.
Corrosion resistance of aluminium in fresh waters with special reference to pipelines.Booth, F. F., Murray, G. A. W., & Godard, H. P., Br. Corr. J., 1965, 1, 80
170.
Experimental techniques, testing
171.
Chemical etching of high-purity aluminium.Bakish, R., Kornhaas, R., & Borders, E. Z., Electrochem. Technol., 1965, 3, 116
172.
Electropolishing of copper specimens. Powers, R. W., Electrochem. Technol., 1964, 2, 274
173.
Comparing the results of electro-chemical corrosion testing methods with the practical performance of the materials.Poubaix, M., Werkstoffe Korros., 1964, 15, 821
174.
Significance of corrosion testing methods with special reference to the S02 test in accordance with the German Standard Specifications DLN 50018. Kesternich, W., Werkstoffe Korros., 1965, 16, 193
175.
Systematic corrosion tests with galvanic coatings in a sulphur dioxide atmosphere.Kutzelnigg, A., Werkstoffe Korros., 1965, 16, 750
176.
Guide to non-destructive testing in corrosion protection.Mossom, L., Corros. Prevo Control., 1965, 12, (4), 19
177.
Newer metals, nuclear materials
178.
Dielectric loss spectra of corrosion films on zirconium.Harrop, P. J., & Wanklyn, J. N., J. electrochem. Soc., 1964, 111, 1133
179.
Kinetics of anodic dissolution of germanium.Boddy, P. J., J. electrochem. Soc., 1964, 111, 1136
180.
Uranium corrosion. I. Optical method for following oxide formation. Grimes, J. H., & Morris, J. R., UKAEA AWRE Rep.1965, 0-66/65
181.
Miscellaneous
182.
Comparison of the results of electrochemical measurements on lowalloy steels with their corrosion behaviour.Becker, G., Arch. Eisenhutt Wes., 1965, 36, 489
183.
Surface oxidation of gold electrodes.Brummer, S. B., & Makrides, A. C., J. electrochem. Soc., 1964, 111, 1122
184.
Anodic oxidation of tantalum in formic acid electrolytes.Cheseldine, D. M., J. electrochem. Soc., 1964, 111, 1128
185.
Corrosion of iron and steel in NH4N03-NH3-H20 solutions. Schick, G., & Uhlig, H. H., J. electrochem. Soc., 1964, 111, 1211
186.
Use of platinum electrodes in chloride solutions.Frankenthal, R. P., & Pickering, H. W., J. electrochern. Soc., 1965, 112, 514
187.
Magnetic properties and corrosion behaviour of thin electroless Co-P deposits.Judge, J. S., et al., J. electrochem. Soc. 1965, 112, 681.
188.
Corrosion under the conditions of ammonium nitrate production by the one step process (without evaporation). Kilman, Va. I., & Zilbermann, D. E., J. appl. Chem., USSR, 1965, 37, 2596
189.
Differential aeration corrosion couples.Ulanovskii, I. B., J. apple Chem., USSR, 1964, 37, 1503
190.
Corrosion of lead-antimony alloys in various electrolytes.Blaise, M. R., Corros. Anti-Corros., 1965, 13, 3
191.
Behaviour of various metals and alloys in fluorine.Langlois, -., et al., Corros. Anti-Corros., 1965, 13, 159
192.
Influence of neutral salts on the kinetics of iron corrosion.Schwabe, K., & Voigt, C., Werkstoffe Korros., 1965, 16, 125
193.
Living with corrosion.Prange, F., Werkstoffe Korros., 1965, 16, 368
194.
Mechanism of dezincification and the effect of arsenic.I. II. Lugey, V. F., Br. Corr. J., 1965, 1, 53
195.
Books
196.
‘Electrodeposition and corrosion processes.’ West, J. M., 1965 (London: Van Nostrand)
197.
‘Corrosion testing procedures.’ 2nd Ed., Champion, F. A., 1964 (London: Chapman & Hall)
198.
‘Oxidation of metals.’ Hauffe, K.(Translation from German), 1965 (New York: Plenum Press)
199.
‘Electrode processes.’ Conway, B. E., 1965 (New York: Ronald Press)
200.
‘Corrosion of metals and alloys.’ Collection translated from Russian.1964 (Boston Spa: N.L.L.)
201.
‘Electrofinishing.’ Brioni, M., & Luck, J. R., 1965 (Amsterdam: Elsevier)
