Development of a Rear Axle Lubricant

Olszewski, W.; Neiswender, D. D.

doi:10.4271/760326

Cited by 5 publications

(1 citation statement)

References 5 publications

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“…This explains their widespread use in gear oils. 16 Because of their polar nature, corrosion inhibitors compete with extreme pressure/antiwear additives for the metal surface and can impair the efficacy of the latter.…”

Section: Mechanism Of Actionmentioning

confidence: 99%

Ashless antioxidants, copper deactivators and corrosion inhibitors: Their use in lubricating oils

Hamblin

Kristen

Chasan³

1990

Lubrication Science

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This paper reviews the use of copper deactivators and iron corrosion inhibitors in lubricating oils. The auto‐oxidation process is described in terms of initiation and chain propagation, branching and termination, and the primary and secondary oxidation inhibitors are described. Copper deactivators and corrosion inhibitors nature and action are discussed, and the paper also examines the applications for these additives.

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Section: Mechanism Of Actionmentioning

confidence: 99%

Ashless antioxidants, copper deactivators and corrosion inhibitors: Their use in lubricating oils

Hamblin

Kristen

Chasan³

1990

Lubrication Science

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Lubricants, 2. Components

Mang

Braun

Dresel

et al. 2011

Ullmann's Encyclopedia of Industrial Chemistry

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The article contains sections titled: 1. Base Oils 1.1. Historical Review and Outlook 1.2. Chemical Characterization of Mineral Base Oils 1.3. Refining 1.3.1. Distillation 1.3.2. Deasphalting 1.3.3. Traditional Refining Processes 1.3.3.1. Acid Refining 1.3.3.2. Solvent Extraction 1.3.4. Solvent Dewaxing 1.3.5. Finishing 1.4. Base Oil Manufacturing by Hydrogenation and Hydrocracking 1.4.1. Manufacturing Naphthenic Base Oils by Hydrogenation 1.4.2. Production of White Oils 1.4.3. Lube Hydrocracking 1.4.4. Catalytic Dewaxing 1.4.5. Wax Isomerization 1.4.6. Hybrid Lube Oil Processing 1.4.7. All‐Hydrogen Route 1.4.8. Gas‐to‐Liquids Conversion Technology 1.5. Boiling and Evaporation Behavior of Base Oils 2. Synthetic Base Oils 2.1. Synthetic Hydrocarbons 2.1.1. Polyalphaolefins 2.1.2. Polyinternalolefins 2.1.3. Polybutenes 2.1.4. Alkylated Aromatics 2.1.5. Other Hydrocarbons 2.2. Halogenated Hydrocarbons 2.3. Synthetic Esters 2.3.1. Esters of Carboxylic Acids 2.3.1.1. Dicarboxylic Acid Esters 2.3.1.2. Polyol Esters 2.3.1.3. Other Carboxylic Esters 2.3.1.4. Complex Esters 2.3.1.5. Fluorinated Carboxylic Acid Esters 2.3.2. Phosphate Esters 2.4. Polyalkylene Glycols 2.5. Other Polyethers 2.5.1. Perfluorinated Polyethers 2.5.2. Polyphenyl Ethers 2.5.3. Polysiloxanes (Silicone Oils) 2.6. Other Synthetic Base Oils 2.7. Mixtures of Synthetic Lubricants 3. Additives 3.1. Antioxidants 3.1.1. Mechanism of Oxidation and Antioxidants 3.1.2. Compounds 3.2. Viscosity Modifiers 3.2.1. VI Improvement Mechanisms 3.2.2. Structure and Chemistry of Viscosity Modifiers 3.3. Pour Point Depressants 3.4. Detergents and Dispersants 3.4.1. Metal‐Containing Compounds (Detergents) 3.4.2. Ashless Dispersants (AD) 3.5. Antifoam Agents 3.6. Demulsifiers 3.7. Dyes 3.8. Antiwear and Extreme Pressure Additives 3.9. Friction Modifiers 3.10. Corrosion Inhibitors 3.10.1. Antirust Additives 3.10.2. Metal Passivators

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Additives

Braun

2017

Lubricants and Lubrication

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Development of a Rear Axle Lubricant

Cited by 5 publications

References 5 publications

Ashless antioxidants, copper deactivators and corrosion inhibitors: Their use in lubricating oils

Ashless antioxidants, copper deactivators and corrosion inhibitors: Their use in lubricating oils

Lubricants, 2. Components

Additives

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