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Abbreviations
- DS-11:
-
A solvent-refined based oil from medium-sulfur crudes, viscosity about 11 cs at 100°C, used (with additives) as a lubricating oil for high-speed diesel engines
- MT-16:
-
A solvent-refined base oil, viscosity about 16 cs at 100°C, used (with additives) as a lubricating oil for various engines.
- BFK-1:
-
Barium salt of alkylphenol-formaldehyde condensation product; ash 9–10%, molecular weight 880
- DF-1:
-
Barium dialkyl dithiophosphate (C20−24 alkyl)
- DF-8:
-
Zinc di-sec-octyl dithiophosphate
- MNI IP-22k:
-
Calcium bis[2,2′-dithio(4-alkylphenyl)] dithiophosphate; contains (minimum) 4% Ca, 1.7% P, 5% S
- PMS:
-
High-ash basic calcium sulfonates, with extra calcium introduced as alkylphenolate complex
- TsIA TIM-339:
-
Barium salt of bis(alkylphenol) disulfide; Ba 4.7% min., S 4–5.5%
- VNII NP-371:
-
Barium salt of alkylphenol-formaldehyde condensation product; barium content 7.9%
- K-17:
-
Rust preventive oil, information on composition contradictory
- K-19:
-
ditto
- NG-203A:
-
Rust preventive oil containing calcium sulfonate and oxidized petrolatum
- AL1OV:
-
Aluminum alloy, not otherwise identified
- ASM:
-
Aluminum-base “antifriction alloy,” containing 3.5–5.5% Sb and 0.3–0.7% Mg
- BrOTss5-5-5:
-
Copper-base “antifriction alloy,” containing 5% Sn, 5% Zn, and 5% Pb; similar to “ounce metal,” SAE-40 casting alloy
- M-3:
-
Cooper ingot, 99.5% minimum purity (typical analysis 99.86% Cu, 0.01%.Pl, 0.03% Zn, 0.01% Fr, 0.02% Sn)
- Sch-21-40:
-
Gray cast iron
- St. 3:
-
Carbon steel, tensile 59,000 psi, yield 31,000 psi
- St. 45:
-
Carbon steel, “improved structural” type, C 0.4–0.5%, Mn 0.45–0.7%, Si 0.17–0.37%, Ni 0.3% min., Cr 0.3% min.; tensile 113,000 psi, yield 78,000 psi
Literature cited
V. S. Demchenko and V. N. Shchemelev, Khim. i tekhnol. topliv i masel, No. 8, (1963).
Z. G. Pinsker, Electron Diffraction [in Russian], Izd. AN SSSR, (1949).
Yu. S. Zaslavskii, G. I. Shor, and R. N. Shneerova, Mechanism of breakdown of protective films formed by corrosion inhibitors. DAN SSSR, 128, No. 5, (1959), p. 1010.
Yu. S. Zaslavskii, G. I. Shor, and R. N. Shneerova, Transactions of Third All-Union Conference on Friction and Wear in Machinery [in Russian],3, Izd. AN SSSR, (1960), p. 283.
Yu. S. Zaslavskii, G. I. Shor, and R. N. Shneerova, From Collection of papers: Oil and Fuel Additives [in Russian], Gostoptekhizdat, (1961), p. 168.
N. D. Tomashov, Theory of Corrosion and Protection of Metals [in Russian], Izd. AN SSSR, (1960).
Yu. S. Zaslavskii, S. É. Krein, and R. N. Shneerova, Khim. i tekhnol. topliv i masel, No. 12, (1959).
P. A. Rebinder, Papers from the Sixth Congress of Physicists [in Russian], V. I. Likhtman, P. A. Rebinder, G. V. Karpenko, Effect of a Surface-active Medium on Metal Deformation Processes [in Russian] Izd. AN SSSR, (1954).
G. I. Shor, Khim. i tekhnol. topliv i masel, No. 1, (1964).
Additional information
On the article of G. I. Shor, Khim. i Tekhnol. Topliv i Masel, No. 1, 1964.
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Demchenko, V.S. Electron diffraction studies and the mechanism of breakdown of films formed on metals by corrosion inhibitors. Chem Technol Fuels Oils 1, 397–400 (1965). https://doi.org/10.1007/BF00718564
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DOI: https://doi.org/10.1007/BF00718564