Home / Materials and Metallurgical Engineering / POTENTIAL-ENHANCEMENT OF DEGRADED ENGINE OIL FOR FRICTION REDUCTION IN COLD UPSET FORGING OF ALUMINIUM ALLOYS

POTENTIAL-ENHANCEMENT OF DEGRADED ENGINE OIL FOR FRICTION REDUCTION IN COLD UPSET FORGING OF ALUMINIUM ALLOYS

 

Table Of Contents


<p> </p><div>TITLE PAGE</div><div>ABSTRACT</div><div>TABLE OF CONTENTS</div><div><br></div><div><b>

Chapter ONE

: </b>INTRODUCTION</div><div>1.1 &nbsp; &nbsp; &nbsp; Preamble</div><div>1.2 &nbsp; &nbsp; &nbsp; Statement of Research Problem</div><div>1.3 &nbsp; &nbsp; &nbsp; Justification</div><div>1.4 &nbsp; &nbsp; &nbsp; Aim and Objectives</div><div>1.5 &nbsp; &nbsp; &nbsp; Scope</div><div>1.6 &nbsp; &nbsp; &nbsp; Contribution to Knowledge</div><div><br></div><div><b>

Chapter TWO

:</b>&nbsp;LITERATURE REVIEW</div><div>2.1 &nbsp; &nbsp; &nbsp; Introduction</div><div>2.2 &nbsp; &nbsp; &nbsp; Metal Forming</div><div>2.3 &nbsp; &nbsp; &nbsp; Friction and Lubrication in Metal Forming</div><div>2.3.1 &nbsp; &nbsp;Friction in metal forming</div><div>2.3.2 &nbsp; &nbsp;Coefficient of friction</div><div>2.4 &nbsp; &nbsp; &nbsp; Lubrication</div><div>2.4.1 &nbsp; &nbsp;Lubricants</div><div>2.4.2 &nbsp; &nbsp;Common lubricants used in metal forming</div><div>2.5 &nbsp; &nbsp; &nbsp; Forging</div><div>2.5.1 &nbsp; &nbsp;Cold forging</div><div>2.5.2 &nbsp; &nbsp;Friction and lubrication in forging</div><div>2.5.3 &nbsp; &nbsp;Cold forging lubricants</div><div>2.6 &nbsp; &nbsp; &nbsp; Oils under Investigation</div><div>2.6.1 &nbsp; &nbsp;Engine oil</div><div>2.6.2 &nbsp; &nbsp;Degraded engine oil</div><div>2.6.3 &nbsp; &nbsp;Vegetable oils</div><div>2.6.4 &nbsp; &nbsp;Palm kernel oil</div><div>2.6.5 &nbsp; &nbsp;Neem oil</div><div>2.7 &nbsp; &nbsp; &nbsp; Ring Compression Test</div><div>2.8 &nbsp; &nbsp; &nbsp; Previous Work</div><div><br></div><div><b>

Chapter THREE

:</b>&nbsp;MATERIALS AND METHODS</div><div>3.1 &nbsp; &nbsp; &nbsp; Materials</div><div>3.1.1 &nbsp; &nbsp;Aluminium alloy</div><div>3.1.2 &nbsp; &nbsp;Oils under investigation</div><div>3.1.3 &nbsp; &nbsp;Equipment</div><div>3.2 &nbsp; &nbsp; &nbsp; Methods</div><div>3.2.1 &nbsp; &nbsp;Sample preparation</div><div>3.2.2 &nbsp; &nbsp;Ring compression test</div><div><br></div><div><b>

Chapter FOUR

:</b>&nbsp;RESULTS</div><div>4.1 &nbsp; &nbsp; &nbsp; Final Internal Diameter of Rings Obtained Under the Investigated Lubrication Conditions</div><div>4.2 &nbsp; &nbsp; &nbsp; Physical Properties of Oils Under Investigation</div><div>4.3 &nbsp; &nbsp; &nbsp; Viscosities of the Investigated Oils</div><div><br></div><div><b>

Chapter FIVE

:</b>&nbsp;DISCUSSION OF RESULTS</div><div>5.1 &nbsp; &nbsp; &nbsp; Evaluated Coefficient of Friction for Various Changes in Internal Diameter Obtained Under the Different Lubrication Conditions</div><div>5.3 &nbsp; &nbsp; &nbsp; Regression Analysis</div><div>5.4 &nbsp; &nbsp; &nbsp; Average Coefficients of Friction of the Lubricants Investigated</div><div><br></div><div><b>CHAPTER SIX: </b>SUMMARY, CONCLUSION AND RECOMMENDATIONS</div><div>6.1 &nbsp; &nbsp; &nbsp; Summary</div><div>6.2 &nbsp; &nbsp; &nbsp; Conclusion</div><div>6.3 &nbsp; &nbsp; &nbsp; Recommendations</div><div>REFERENCES</div>APPENDIX<br> <br><p></p>

Project Abstract

<p> </p><div><b>ABSTRACT</b></div><div>Enhancement of the friction-reducing properties of degraded 20W-50 engine oil by blending with neem and palm kernel oils respectively for application in cold upset-forging of aluminium alloys has been investigated using the ring compression test procedure. Three sets of blends of each of the vegetable oils with the degraded engine oil in the ratios 4060, 5050 and 6040, the engine oil (unused and degraded) and the individual vegetable oils were investigated for friction reduction. Based on the modified empirical formula for friction coefficient determination under the various lubrication conditions, the average values of friction coefficient, µ obtained under the investigated unused engine oil, degraded engine oil, pure neem oil, 40% neem oil, 50% neem oil, 60% neem oil, pure palm kernel oil, 40% palm kernel oil, 50% palm kernel oil and 40% palm kernel oil oils were 0.073, 0.092, 0.068, 0.068, 0.062, 0.060, 0.057, 0.080, 0.058 and 0.057 respectively. Close correlations were observed betweencurves of these friction values andthe standard calibration curves proposed by Male and Cockroft. On comparative basis with degraded oil lubrication condition with average friction coefficient of 0.092, appreciable reduction in friction values were obtained. The lowest average was obtained under 60% palm kernel oil mixed with degraded engine oil. This is attributable to increased viscosity and fatty acid quantity/quality of the investigated vegetable oil. However, based on curves of plot of coefficient of friction against percentage reduction in height, 40% and 50% neem oil in degraded oil could be adjudged the best blend ratios as their coefficients of friction fall with increasing deformation, whereas most of the blends of palm kernel considered in this work demonstrated unstable trends. Best results for neem oil blends with degraded oil could be attributed to the favorable physicochemical properties of the parent vegetable oil.</div> <br><p></p>

Project Overview

<p> </p><div>&nbsp; <b>INTRODUCTION</b></div><div><b>1.1 Preamble</b></div><div>Several countries in the world have put in place policies and plans to manage the disposal of degraded oil to protect their environment. Unfortunately the appropriate management of degraded oil is a common problem for many African countries, including Nigeria, where much of the wastes have negative environmental and human health risks because of inadequate systems for collection, storage, recycling, disposal etc. (Bamiro and Osibanjo, 2004).</div><div><br></div><div>A common trend in waste management in recent times is recycling of wastes. The benefits of recycling are: less waste, less pollution and a more prudent utilization of precious natural resources (Harrison, 1994). Recycling of used oils will not only reduce harmful wastes in the environment, but will also provide cheap alternative raw materials for industries, particularly the metal-based manufacturing industries.</div><div><br></div><div>In metal forming operations generally, friction has been identified as one of the important influential factors whose reduction is one of the main tasks in planning and realization of metal forming processes (Plancak<i>et al.</i>, 2012). Of all the methods currently available for reducing friction, the most effective and most employed way is lubrication of interfacial surfaces during deformation (Plancak<i>et al.</i>, 2012).</div><div><br></div><div>In conventional lubrication practices, the choice is often a mineral oil-based lubricant (Pettersson, 2006). Mineral oils used as lubricants have well-known properties and have been.....</div> <br><p></p>

Blazingprojects Mobile App

📚 Over 50,000 Project Materials
📱 100% Offline: No internet needed
📝 Over 98 Departments
🔍 Project Journal Publishing
🎓 Undergraduate/Postgraduate
📥 Instant Whatsapp/Email Delivery

Blazingprojects App

Related Research

Materials and Metall. 4 min read

Development of High-Temperature Corrosion Resistant Coatings for Super Alloy Compone...

The project titled "Development of High-Temperature Corrosion Resistant Coatings for Super Alloy Components in Gas Turbines" focuses on addressing a c...

BP
Blazingprojects
Read more →
Materials and Metall. 2 min read

Development of High-Performance Lightweight Alloys for Aerospace Applications...

The project titled "Development of High-Performance Lightweight Alloys for Aerospace Applications" aims to investigate the design, development, and te...

BP
Blazingprojects
Read more →
Materials and Metall. 4 min read

Development of High-Strength Lightweight Alloys for Aerospace Applications...

The project titled "Development of High-Strength Lightweight Alloys for Aerospace Applications" aims to address the growing demand for innovative mate...

BP
Blazingprojects
Read more →
Materials and Metall. 3 min read

Development of High-Strength Lightweight Alloys for Aerospace Applications...

The project topic "Development of High-Strength Lightweight Alloys for Aerospace Applications" focuses on the crucial need within the aerospace indust...

BP
Blazingprojects
Read more →
Materials and Metall. 4 min read

Investigation of the Corrosion Behavior of Biodegradable Magnesium Alloys for Orthop...

The research project titled "Investigation of the Corrosion Behavior of Biodegradable Magnesium Alloys for Orthopedic Implants" aims to explore the co...

BP
Blazingprojects
Read more →
Materials and Metall. 2 min read

Characterization and Optimization of Additive Manufacturing Parameters for Titanium ...

The project topic "Characterization and Optimization of Additive Manufacturing Parameters for Titanium Alloy Components" focuses on the critical inves...

BP
Blazingprojects
Read more →
Materials and Metall. 2 min read

Development and Characterization of Novel High-Strength Composites for Aerospace App...

The project on "Development and Characterization of Novel High-Strength Composites for Aerospace Applications" aims to address the growing demand for ...

BP
Blazingprojects
Read more →
Materials and Metall. 2 min read

Corrosion Behavior of Bio-Based Coatings on Steel Alloys...

The research project on "Corrosion Behavior of Bio-Based Coatings on Steel Alloys" aims to investigate the effectiveness of utilizing bio-based coatin...

BP
Blazingprojects
Read more →
Materials and Metall. 4 min read

Development and Characterization of High-Strength Lightweight Alloys for Aerospace A...

The project "Development and Characterization of High-Strength Lightweight Alloys for Aerospace Applications" aims to address the critical need for ad...

BP
Blazingprojects
Read more →
WhatsApp Click here to chat with us