As in previous years, this review can only cover a few major topics, chosen on the basis of the importance of the literature as seen by the authors. There has been no major breakthrough on corrosion in 1966, but there are clear signs of a deepening understanding of many corrosion processes, as instanced by the reported near-unanimity of the five plenary lecturers at the Third International Congress on Metallic Corrosion in Moscow, on the mechanism of passivity.
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References
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On scale/metal entanglement in low alloy steels: Part II. Sachs, K., et al., Anti-Corros. Meth. Mater., 1966, 1, (5), 33
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Effect of cold work on the oxidation of iron from 400-650°C. Caplan, D., & Cohen, M., Corros. Sci., 1966, 6, 321
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The mechanism of formation of a porous oxide film on steel. Castle, J. E., & Mann, G. M. W., ibid, p. 253
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The effect of oxide volatilisation on the oxidation kinetics of Cr and Fe-Cr alloys. Tedmon, C. S., jun., J. electrochem. Soc., 1966, 113, 766
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Characteristic scales on pure nickel-chromium alloys at 800°-1200°C. Wood, G. C., & Hodglciess, T., ibid, p. 319
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Nature and mechanism of formation of oxide films in the chromium-iron-carbon system. Menzies, F. A., etal., Nature, 1966, 212, 915
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A comparison of the scaling behaviour of pure iron-chromium and nickel-chromium alloys in oxygen. Wood, G. C., et al., Corros. Sci., 1966, 6, 129
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Influence of minor alloying elements on structure of surface oxides formed during high-temperature oxidation of an austenitic steel. Francis, J. M., J. Iron Steel Inst., 1966, 204, 910
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Oxidation of an Fe-2 29% Ni alloy in carbon dioxide at 600-1000°C. Menzies, I. A., & Tomlinson, W.J., ibid, p. 1239
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Some anomalies in the scaling of iron in carbon dioxide at high temperatures. Menzies, I. A., & Tomlinson, W.J., Chemy Ind., 1966, p. 700
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Scaling rate of pure iron, and mild steel in oxygen, water vapour and carbon dioxide at temperatures ranging from 850 to 1000°C. Tuck, C. W., et al., Werkstoffe Korros., Mannheim, 1966, 17, 34
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The oxidation of chromium-nickel steels in sulphur dioxide(com-pared with that in carbon dioxide) at high temperatures. Vladimirovov, M. G., et al., Zh. prikl. Khim., 1966, 39, 132
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High-temperature oxidation resistance of an yttrium bearing 20% Cr/25 % Ni/Nb stabilized austenitic steel in carbon dioxide. Francis, J. M., & Whitlow, W. H., J. Iron Steel Inst., 1966, 204, 355
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Examination of high-temperature corrosion specimens by means of the microprobe. Bruch, I., Werkstoffe Korros., Mannheim, 1966, 17, 685
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High temperature oxidation of chromium containing Y203. Seybolt, A. U., Corros. Sci., 1966, 6, 263
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Oxidation of cobalt at high temperatures. Mrowec, S., et al., ibid, p. 287
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Oxidation of iron-aluminium alloys in the range 500-1000°C. Saegusa, F., & Lee, L., Corrosion, 1966, 22, 168
135.
A thermomicrobalance for the study of the kinetics of high tempera-ture corrosion in sulphur-containing atmospheres. Whittle, J. E., J. scient. Inst rum., 1966, 43, 150
136.
Results of a continuous check on materials for high temperature corrosion by measuring the electromotive force. Pfeiffer, W., Werkstoffe Korros., Mannheim, 1965, 16, 1013
137.
The resistance of alloys to high temperature corrosion by products of combustion. Hopkins, B. E., ibid, p. 1025
138.
Prevention of corrosion in oil-fired boilers by burning the oil with extremely low excess air. Glaubitz, F., ibid, p. 1033
139.
Types of corrosion and the behaviour of metals and additives in firing plants. Wickert, K., ibid, p. 1048
140.
High-temperature corrosion by-products of combustion of fuel oils of high and medium density. Schultze, G. R., Werkstoffe Korros., Mannheim, 1966, 17, 1
141.
2nd European symposium on corrosion inhibitors (Ferrara). Electrochim. Metallorum, 1966, 1, 123
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Present day problems of inhibition.Frasch, J., Corros. Anti-Corros., 1966, 14, 204, 261
143.
Film growth on mild steel in inhibitive solutions. Brasher, D. M., et al., Br. Corros. J., 1966, 1, 188
144.
The mechanism of the action of inorganic inhibitors. Cartledge, G. H., ibid, p. 293
145.
The inhibition of the corrosion of iron in alkaline solutions. Gilroy, D., & Mayne, J. E. O., ibid, p. 161
146.
Investigation of thin oxide films-I. The oxidation of pure iron at temperatures around 200°C. Grauer, D., & Feitknecht, W., Corros. Sci., 1966, 6, 301
147.
Investigation of thin oxide films-II. The behaviour of pre-oxidised iron sheet on passivation in a potassium chromate solution. Grauer, D., & Feitknecht, W., ibid, p. 313
148.
The passivation of iron in the presence of pertechnetate and chromate ions. Cartledge, G. H., J. electrochem. Soc., 1966, 113, 328
149.
Effects of anions on corrosion inhibition by organic compounds. Hackerman, N., et al., ibid, p. 677
150.
Infrared study of adsorbed corrosion inhibitors: Butyl nitrite and nitric oxide on iron-iron oxide.PolingG. W., & EischensR. P., ibid, p. 218
151.
Investigations of the mechanism of the inhibitor‘s protective action in oily and fatty layers. Klenowicz, Z., Pompowski, T., & Rak, J., Australas. Corros. Engng, 1966, 10, (2), 3
152.
The corrosion inhibiting properties of dimer based polyamide resins.Wittcoff, H., & Baldwin, W. B., Paint Technol., 1966, 30, (10), 24
153.
The inhibition effect of phenyl-tri-thionium-metho-sulphate on the corrosion of iron. Grubitsch, H., Werkstoffe Korros., Mann-heim, 1966, 17, 289
154.
Inhibition of copper corrosion in sodium hydroxide solutions. Desai, M. N., & Rana, S. S., ibid, p. 870
155.
Reducing the corrosion rate of steel in hydrochloric acid by means of unsaturated organic substances. Putchova, I. N., & Chislova, E. N., Zashch. Metalloy., 1966, 2, 290
156.
Mechanism underlying the effects of inhibitors on the acid corrosion of metals. I-Prevention of iron corrosion in sulphuric and hydrochloric acid solutions in pyridine compounds. Antropov, L. I., ibid, p. 279
157.
Inhibition of the corrosion of Aluminium 2S and 3S in hydrochloric acid. Desai, M. N., & Desai, Mrs. S. M., Werkstoffe Korros., Mannheim, 1966, 17, 207
158.
Corrosion inhibiting additives in oil-fired boilers. Jenlcinson, J. R., & Zaczek, B. J., ibid, p. 218
159.
Anodic polarisation measurements of corrosion and corrosion inhibition of steel in concrete. Gouda, V. K., Br. Corros. J., 1966, 1, 138
160.
Testing corrosion inhibitors for gas cooling water systems.Chap-man, W. H., Mater. Prot., 1966, 5, (3), 12
161.
Corrosion inhibitors for aluminium.Roebuck, A. H., & Pritchett, T. R., Mater. Prot., 1966, 5, (7), 16
162.
Fundamentals of oil and gas well corrosion inhibitors.Barrett, J. P., Mater. Prot., 1966, 5, (7), 43
163.
Controlling aluminium attack in recirculating cooling systems. Hatch, G. B., ibid, p. 46
164.
Characterisation and performance studies: corrosion inhibitors in oilfield fluids.BushH. E., & CowanJ. C., Mater. Prot., 1966, 5, (9), 25
Corrosion resistance of(stainless) steels with low nickel content in aggressive media. Langer, N. A., et al., Metallov. term. Obrab. Metall., 1966, p. 29
167.
Potentiostatic corrosion studies of iron, type-304 and type-321 stainless steel. Porte, H. A., Report AD.624269, 1965, (40 pp.) (Springfield, Va., O.T.S., U.S. Dept. of Commerce)
168.
Corrosion elements set up by structure heterogeneity in stainless chromium-nickel steels. Buhler, E., Werkstoffe Korros., Mann-heim, 1966, 17, 661
169.
Investigations into the influence of hydrogen sulphide and sulphur dioxide on the corrosion of chemically resistant chrome-nickel steels in a sulphuric acid solution of sodium sulphate. Herbsleb, G., & Schwenk, W., ibid, p. 745
170.
Potentiostatic, potentiokinetic and intensiokinetic current density/ potential measurements on austenitic chrome-nickel steels. Grubitsch, H., et al., ibid, p. 862
171.
Intergranular corrosion of austenitic stainless steel in such aggres-sive environments as oxidising acids. The influence of silicon content in steel. Coriou, H., et al., Corros. Anti-Corros., 1966, 14, 163.
172.
On some non standardised austenitic stainless steels. Hochmatm, J., ibid, p. 210
173.
Effect of oxygen concentration and pH on electrode potential of stainless steels and operation of microcouples. Korovin, Yu, M., & Ulanovskii, I. B., Corrosion, 1966, 22, 16
174.
Effects of Mo, Cu, Si, and P on anodic behaviour of 17 Cr steels. Lizlovs, E. A., ibid, p. 297
175.
Sacrificial metallic coatings for austenitic stainless steels.Van Droffelaar, H., & Hudson, G. B., Mater. Prof., 1966, 5, (3), 62
176.
Corrosive effect of alternating current(50 c/s) on stainless steel 1Kh8N9T in neutral solutions. Tolstaya, M. A., Zashch. Metallov., 1966, 2, 323
177.
Polarisation of strained AISI4340steel in oxygenated NaC1 solutions. Toy, S. M., Corrosion, 1966, 22, 229
178.
Anodic protection of AISI 316 stainless steel in an HC104-HC1 solution. Trabanelli, G., & Zucchi, F., Corros. Anti-Corros., 14, 255
179.
Anodic protection of austenitic stainless steel.Juchniewicz, R., et al., Corros. Sc., 1966, 6, (1), 25
180.
The corrosion of austenitic superheater steels by alkali sulphate/ alkali chloride mixtures in air and combustion gases. Bishop, R. J., & Samms, J. A. C., Werkstoffe Korros., Mannheim, 1966, 17, 197
Corrosion of metals in the mouth.Modjeski, P. J., Mater. Prof., 1966, 5, (4), 41
199.
Corrosion of mild steel by actively growing cultures of sulphate-reducing bacteria. The influence of ferrous iron. Booth, G. H., et al., Br. Corros. J., 1966, 1, 345
200.
The characteristics of transgranular stress-corrosion cracking. Scully, J. C., Br. Corros. J., 1966, 1, 355
201.
Surface chemical factors in the stress-corrosion cracking of alpha brass. Johnson, H. E., & Leja, J., Corrosion, 1966, 22, 178
202.
Research into special cases of stress corrosion with homogeneous non-oversaturated mixed crystals, and of the electrochemical processes associated with it.Part I. The causes of stress corrosion of nickel-rich Ni-Cu alloys under the influence of aqueous solutions of HF under certain conditions. Graf, L., & Wittich, W., Werkstoffe Korros., Mannheim, 1966, 17, 385. Part II. Further research into the stress corrosion of brass.ibid, p. 471. Part III. The sensitivity of stress corrosion of brass containing gold, compared with Cu-Au alloys, and the determina-tion of their activation energies. ibid, p. 595
203.
Dislocation configurations and stress-corrosion properties of alloys in the nickel-chromium-iron system. Evans, T. E., & Burr, D. J., Br. Corros. J., 1966, 1, 192
204.
Electrochemical conditions and structural initiation of stress-corrosion cracking in unalloyed 08 % carbon steel wire. Bracket, M., Compt. rend., 1966, 262, 261
205.
Stress-corrosion failures. Swann, P. R., Scient. Am., 1966, 214, 72
206.
Stress corrosion testing of alloys.Logmow, A. W., Mater. Prof., 1966, 5, (5), 33
207.
The hows and whys of metal failures.(Summaries of seminar papers).Mater. Prof., 1966, 5, (1), 43
208.
Metallurgy and the new corrosion engineer. What he should know about corrosion induced brittle failures. Holmberg, M. E., & Bruno, T. V., Mater. Prof., 1966, 5, (5), 8
209.
Corrosion fatigue strength of copper and copper alloys, especially of multi-component aluminium bronzes. Dies, K., & Jung-Lönig, W., Werkstoffe Korros., Mannheim, 1966, 17, 462
210.
The importance of the formation of a cover layer with stress corrosion cracking. Gräfen, H., ibid, p. 485
211.
Protection of steel from hydrogen cracking by thin metallic films. Matsushima, I., & Uhlig, H. H., J. electrochem. Soc., 1966, 113, 555
212.
Hydrogen sulphide cracking of carbon and alloy steels. Hudgins, C. M., et al., Corrosion, 1966, 22, 238
213.
Intercrystalline corrosion of phosphorus de-oxidised copper.Dempster, N. S., Mater. Prof., 1966, 5, (3), 27
214.
Analysis of some typical cases of stress corrosion on copper and copper alloy structures. Serre, J., Corros. Anti-Corros., 1966, 14, 9
215.
Corrosion control in steam electric stations.Garner, R. L., Mater. Prof., 1966, 5, (2), 68
216.
Corrosion of iron and nickel alloys in2000 and 2200°F steam. Puyear, R. B., & Silence, W. L., Mater. Prof., 1966, 5, (5), 17
217.
The behaviour, in superheated steam, or iron-chrome-nickel austenites and the Fe Al 40 alloy. Coriou, H., et al., Corros. Anti-Corros., 966, 14, 69
218.
Considerations on the use of polarisation curves for the study of the industrial problems of aqueous corrosion. Defranoux, J., ibid, p. 270
219.
The study of the behaviour of alloys containing iron and nickel under water corrosion. Grail, L., ibid, p. 309
Improved techniques for cooling water corrosion control.Degnan, T. F., & Fynsk, A. W., Mater Prof., 1966, 5, (8), 29
222.
Stranded steel wire in sea water.Rigo, J. H., Mater. Prof., 1966, 5, (4), 54
223.
Corrosion of magnesium in aqueous media.Hydock, J. J., Mater. Prot., 1966, 5, (5), 58
224.
‘Exotic’ metals, their use as construction materials. Vorhis, F. H., Mater. Prot., 1966, (8), 21
225.
Physical and chemical cleanliness of surfaces in nuclear techniques and applications. Dore, R., Corros. Anti-Corros., 1966, 14, 221
226.
Special problems of water corrosion found in nuclear installations. Coriou, H., ibid, p. 301
227.
Uranium + water reaction.Part I-Kinetics, products and mechanism. Baker, M. McD., et al., Trans. Faraday Soc., 1966, 62, (525), 2513. Part 2-Effect of oxygen and other gases, ibid, p. 2525
228.
The active and passive molybdenum electrode in acid solutions. Markovie, T., et al., Werkstoffe Korros., Mannheim, 1966, 17, 669
229.
Oxidation characteristics of the lanthanide metals. Greene, N. D., & Hodge, F. G., Corrosion, 1966, 12, 206
230.
Titanium corrosion in aqueous solutions. Wieman, S. H., ibid, p.98 The corrosion of zirconium and Zircaloy-2 at low temperatures. Cigna, R., et al., J. electrochem. Soc., 1966, 113, 105
231.
The high-temperature oxidation of ductile Cr-Re alloys. Tedmon, C. S., jun., ibid, p. 769
232.
Kinetics of the corrosion of iron accompanied by hydrogen or oxygen depolarisation. Sedzimir, J., et al., Werkstoffe Korros., Mannheim, 1966, 17, 556
233.
Corrosion rates of mild steel in alkaline lithium bromide solutions by the polarisation resistance method. Cohen, A., & Jelinek, R. V., Corrosion, 1966, 22, 39
234.
The anodic behaviour of iron-carbon alloys in moving acid media. Ross, T. K., et al., J. electrochem. Soc., 1966, 113, 334
235.
Mechanisms underlying the protection of carbon steel in con-centrated sulphuric acid. Novakosky, V. M., & Fairgold, L. L., Zashch. Metallov., 1966, 2, 300
236.
Iron - considered to be a multiple mixed electrode. Markovid, T., & Nad, E., Werkstoffe Korros., Mannheim, 1966, 17, 553
237.
The anodic and cathodic behaviour of iron in sulphate containing electrolytes. Brenet, J., et al., ibid, p. 316
238.
The morphology of magnetite growth on mild steel in alkaline solutions at 316°C. Marsh, T. F., J. electrochem. Soc., 1966, 113, 313
239.
Electron-optical and radiographical examination of a protective iron phosphate layer on iron. Radczewski, O. E., & Wanderer, E.Werkstoffe Korros., Mannheim, 1966, 17, 938
240.
The corrosion of aluminium in solutions of sodium fluoride and sodium chloride. Lorking, K. F., & Mayne, J. E. O., Br. Corros. J., 1966, 1, 181
241.
The early stages of the low pressure oxidation of single crystals of copper. Mitchell, D. F., & Lawless, K. R., J. Paint Technol., 1966, 38, 575
242.
Evaluation of potentiokinetic current/potential measurements on Cu-Ni alloys, copper and brass in sea water. Gurbitsch, H., et Werkstoffe Korros., Mannheim, 1966, 17, 760
243.
Thermodynamic conditions for the formation of cover layers on passive zinc. Markovié, T., et al., ibid, 957
244.
The anodic behaviour of tin in the case of auto-passivation. Markovié, T., & Bahia, R., ibid, p. 380
245.
Anodic and cathodic behaviour of chromium in hydrochloric solution. Markovid, T., & Zivkovid, P., ibid, p. 857
246.
Crystalline corrosion layers and corrosion protection layers on metals and their relationship to epitaxy. Neuhaus, A., & Gebhardt, M., ibid, p. 567
247.
A comparative study of adsorption by ellipsometric and radiotracer methods. Miller, J. R., & Berger, J. E., J. phys. Chem., Ithaca, 1966, 70, 3070
248.
The potential sweep method: A theoretical analysis.GileadiE., & SrinivasanS., Electrochim. Acta; 1966, 11, 321
249.
A transistorised potentiostat with very fast rise time for impulse technique. Taccussel, J., ibid, p. 449
250.
Significance of corrosion diagrams. Cupr, V., & Peliken, J. B., Werkstoffe Korros., Mannheim, 1966, 17, 848
251.
Corrosion in moist hydrogen sulphide systems. Bhargara, H. N., et al., Indian J. Technol., 1966, 4, 114
252.
Testing of zinc coatings by means of the electron microscope. Haskó, F., et al., Werkstoffe Korros., Mannheim, 1966, 17, 951
253.
Accelerated atmospheric corrosion-A laboratory test.Geld, I., & D'Oria, F. J., Mater. Prot., 1966, 5, (3), 16
254.
New electrolytic test for corrosion devised in U.S.A. gives fast results. Anon., Anti-Corros. Meth. Mater., 1966, 1, (11), 11
255.
Chemical monitoring for corrosion. Holy, H. W., ibid, p. 8 The corrosion performance of various metals in concrete. Blake, J. B., Australas. Corros. Engng, 1966, 10, (10), 9
256.
Atmospheric corrosion of metals at Bhavnager. Rao, V. S., Indian 1. Technol., 1966, 4, 159
257.
Five-year corrosion of aluminium alloys at several marine sites. Ailor, W. H., Br. Corros. J., 1966, 1, 237
258.
The protection of ships’ bottoms-a review. Acock, G. P., ibid, p. 129
259.
Corrosion-resistant fasteners: a review.LaytonD. N., & WhiteP. E., ibid, p. 213
260.
The assessment of surface profile after blast-cleaning. Chandler, K. A., & Shak, B.J., ibid, p. 307
261.
Protection of steel by metal spraying: a review.BonnerP. E., & StannersJ. F., ibid, p. 339
262.
Corrosion-erosion resistance of alloy steels. Vladimirov, L. P., et al., Metallov. term. Obrab. Metall., 1966, p. 48
263.
The role of design in corrosion prevention.Sundararajan, J., & Rama Char, T. L., Australas. Corros. Engng, 1966, 10, (6), 3
264.
A guide to the protection of steel structures.Perry, C. E., Australas. Corros. Engng, 1966, 10, (7), 17
265.
Atmospheric components and filiform corrosion. Slabaugh, W. H., & Chan, E. J., J. Paint Technol., 1966, 38, 417
266.
Criteria for the selection of materials and corrosion protection in the chemical industry. Kölbel, H., & Schulze, J., Werkstoffe Korros., Mannheim, 1966, 17, 124
267.
Contact corrosion basic facts-effects-prevention. Spähn, H., & Fässler, K., ibid, p. 321
268.
Protective coatings for steel piling: correlation of results of parallel test exposures at Port Hueneme and Guam.BrouilletteC. V., & AlumbaughR. L., Report AD.470969, 1965, (29 pp.), (Springfield, Va.: O.T.S., U.S. Dept. of Commerce)
269.
Accelerated corrosion of ship's bottom plate. Copenhagen, W. J., Br. Corros. J., 1966, 1, 344
270.
The exfoliating corrosion of cupro-nickel feed-water heater tubes. Castle, J. E., et al., ibid, p. 143
271.
Chlorine corrosion encountered with the generation and processing of Lurgi pressure gasification gas made from coal. Bieger, F., & Kruger, H., Werkstoffe Korros., Mannheim., 1966, 17, 224
272.
Investigations on macroelements on pipelines. Von Baeckmann, W., ibid, p. 307
273.
Radioactive inhibitor tracer in pipelines.Riggs, O. L., Mater. Prot., 1966, 5, (11), 27
274.
The destruction of material through cavitation and corrosion in ethylene glycol-water mixes. Schulmeister, R., Werkstoffe Korros., Mannheim, 1966, 17, 230
275.
Selective corrosion at welded assemblies of steels. Bäumel, A., ibid, p. 299
276.
Anodic protection through local cathodes. Fischer, W. R., ibid, p. 477
277.
Influence of road salt on the corrosion of underbody materials and finishes. Anon., Surf. Coat., 1966, 2, 392
278.
‘Proceedings Second International Congress on Metallic Corrosion, 1963’, 1966 (Houston: N.A.C.E.)
279.
JonesP. M. S., & EdmonsonW., ‘The oxidation of rare earth metals.Part 2 Praseodymium’, 1966, U.K.A.E.A., A.W.R.E. Report No. 0-72/66
280.
‘Practical Aspects of Corrosion Control’. Preprinted papers of 7th Annual Conference, Australasian Corrosion Association, 7–11Nov., 1966
281.
PourbaixM., ‘Atlas of Electrochemical Equilibria in Aqueous Solutions’, Translated by J. A. Franklin, 1966 (Oxford: Pergamon Press)
