We are now adding more regular content to the videos section, not just the written articles. So regular visitors will be pleased with the updates. We have also added some playlists (use the < and > arrows on any clicked video to go between videos in a playlist). These are to cover topics we think you may require a few videos to understand, and we are building our content in this section to cover the full ISO18436 for lubrication analysis syllabus over the next few months to aid in your CPD as well as gaining the very prestigious LOA certification.

Basics of Oil Analysis (ISO18436)

This video series covers the main concepts you would cover in any introductory course to oil analysis, including lubrication concepts and basic oil analysis testing. Perfect as an intro course to anyone in Oil Analysis and covering some of the key concepts of ISO18436.

YouTube Video UExKZFR0SEY5U3h5Z3RHM1dwYWhUMTFMaUdqRVhHUXZrby41NkI0NEY2RDEwNTU3Q0M2 Dive into the world of oil analysis with our latest video, where we uncover the myriad benefits this practice offer, how it is used in daily life in industrial and mechanical contexts. This intro video gives you a flavour of what the subject entails. Watch the video and then carry on reading. Now you have watched the video, you likely have some questions? How does oil analysis help? : 1. **Early Detection of Equipment Issues:** Discover how regular oil analysis can help in identifying potential problems in machinery before they escalate into major failures, thus preventing costly downtime and repairs. 2. **Extended Equipment Life:** Learn about the role of oil analysis in extending the lifespan of machinery by ensuring that lubricants are performing optimally, thereby reducing wear and tear. 3. **Improved Lubricant Management:** Gain insights into how oil analysis assists in determining the optimal time for oil changes, reducing both waste and expenses associated with lubricant replacement. 4. **Enhanced System Efficiency:** Understand how maintaining oil quality through analysis can lead to improved efficiency and performance of machinery, contributing to overall operational effectiveness. 5. **Environmental Benefits:** Explore the environmental advantages of oil analysis, which include reduced oil disposal due to optimised oil change intervals and the prevention of major oil leaks. 6. **Cost Savings:** Delve into the significant cost benefits, as effective oil analysis can lead to reduced maintenance costs, fewer breakdowns, and lower overall operational expenses. 7. **Safety Improvements:** Learn how oil analysis contributes to safer working environments by reducing the likelihood of equipment failure that could lead to accidents. Enjoyed the video or article? Visit https://learnoilanalysis.com & https://oilanalysislab.com to find out more.
⚙️ Oil Analysis - Why do I need oil analysis?
2018-12-12 1:14 am
Dive into the world of oil analysis with our latest video, where we uncover the myriad benefits this practice offer, how it is used in daily life in industrial and mechanical contexts. This intro video gives you a flavour of what the subject entails. Watch the video and then carry on reading. Now you have watched the video, you likely have some questions? How does oil analysis help? : 1. **Early Detection of Equipment Issues:** Discover how regular oil analysis can help in identifying potential problems in machinery before they escalate into major failures, thus preventing costly downtime and repairs. 2. **Extended Equipment Life:** Learn about the role of oil analysis in extending the lifespan of machinery by ensuring that lubricants are performing optimally, thereby reducing wear and tear. 3. **Improved Lubricant Management:** Gain insights into how oil analysis assists in determining the optimal time for oil changes, reducing both waste and expenses associated with lubricant replacement. 4. **Enhanced System Efficiency:** Understand how maintaining oil quality through analysis can lead to improved efficiency and performance of machinery, contributing to overall operational effectiveness. 5. **Environmental Benefits:** Explore the environmental advantages of oil analysis, which include reduced oil disposal due to optimised oil change intervals and the prevention of major oil leaks. 6. **Cost Savings:** Delve into the significant cost benefits, as effective oil analysis can lead to reduced maintenance costs, fewer breakdowns, and lower overall operational expenses. 7. **Safety Improvements:** Learn how oil analysis contributes to safer working environments by reducing the likelihood of equipment failure that could lead to accidents. Enjoyed the video or article? Visit https://learnoilanalysis.com & https://oilanalysislab.com to find out more.

A video explanation of why oil analysis, oil condition monitoring of fluids, coolants, fuels, greases, engine coolants is important to reducing failures and maintaining safety as part of a preventative maintenance strategy. Visit https://learnoilanalysis.com & https://oilanalysislab.com to find out more.

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YouTube Video UExKZFR0SEY5U3h5Z3RHM1dwYWhUMTFMaUdqRVhHUXZrby41NkI0NEY2RDEwNTU3Q0M2

⚙️ Oil Analysis - Why do I need oil analysis?

Oil Analysis 2018-12-12 1:14 am

In this comprehensive video, we explore the critical role of oil analysis in shifting maintenance strategies from reactive and scheduled to preventative and proactive, focusing on wear metals, condition monitoring, and contaminant detection. This presentation is ideal for maintenance managers, reliability engineers, and anyone keen to understand the financial and operational benefits of a proactive maintenance regime. We begin by defining the four maintenance strategies: reactive, scheduled, preventative, and proactive. Reactive maintenance occurs after a failure, while scheduled maintenance is based on time or usage intervals. Preventative maintenance involves regular checks to prevent failures, and proactive maintenance seeks to understand and address the root causes of equipment deterioration. The video then highlights how oil analysis plays a key role in both preventative and proactive maintenance. In the context of preventative maintenance, oil analysis is used to detect wear metals. This helps in identifying and addressing component wear before it leads to equipment failure. By monitoring the levels and types of wear metals, maintenance teams can intervene early, preventing costly downtime and repairs. Shifting to proactive maintenance, we discuss how oil analysis goes beyond detecting immediate problems to understanding machine condition and identifying contaminants. This includes analysing oil for contaminants like water, dust, or incorrect oil, which can lead to premature wear or failure. Proactive oil analysis allows for the correction of root causes, such as sealing issues or filtration problems, before they escalate. A significant factor to know is the cost benefits of proactive versus reactive maintenance. For instance studies time and again show proactive maintenance can offer a return on investment of 10 to 1 compared to reactive maintenance. This is due to reductions in unplanned downtime, decreased repair costs, extended equipment life, and improved efficiency. Join us in this enlightening session to understand how oil analysis can transform your maintenance approach, yielding substantial cost savings and operational efficiencies. Whether you're just starting with oil analysis or looking to optimize your current program, this video is an invaluable resource in your journey towards maintenance excellence. Learn more about this and other topics on the channel including Oil condition monitoring, oil analysis, predictive maintenance, real time oil condition monitoring, preventative maintenance, Preventative maintenance, reactive maintenance #oil analysis #maintenance #predictive maintenance

🔧 Dive into the world of maintenance with our comprehensive guide on the four fundamental maintenance strategies! In this enlightening video, we break down each strategy – Preventive, Predictive, Corrective, and Reliability-Centered Maintenance – to help you understand how they can revolutionize your operations. Whether you’re a seasoned professional or new to the field, this video is packed with valuable insights and practical tips.

⚙️ Discover how Preventive Maintenance can prevent unexpected failures, how Predictive Maintenance uses data to foresee problems, the immediate solutions offered by Corrective Maintenance, and the strategic approach of Reliability-Centered Maintenance.

🌟 Don’t forget to Like, Share, and Subscribe for more industry insights!

✨ Stay ahead in the maintenance game with our expert advice and transform your approach today!

Learn more about this and other topics on the channel including Oil condition monitoring, oil analysis, predictive maintenance, real time oil condition monitoring, preventative maintenance, Preventative maintenance, reactive maintenance #oil analysis #maintenance #predictive maintenance

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YouTube Video UExKZFR0SEY5U3h5Z3RHM1dwYWhUMTFMaUdqRVhHUXZrby41QTY1Q0UxMTVCODczNThE

You think you know maintenance? - Reactive, Scheduled, Preventative & Proactive

Oil Analysis 2023-12-29 12:30 am

Explainer of condition based maintenance

Explainer of condition based maintenance

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YouTube Video UExKZFR0SEY5U3h5Z3RHM1dwYWhUMTFMaUdqRVhHUXZrby5GM0Q3M0MzMzY5NTJFNTdE

Condition Based Maintenance

Oil Analysis 2024-08-20 2:00 am

In this informative video, we delve into the critical process of Failure Modes and Effects Analysis (FMEA) within the context of lubrication systems. Designed as an accompanying article, this presentation aims to provide viewers with a thorough understanding of FMEA, a proactive tool used to anticipate and prevent potential failures in mechanical systems. **Introduction to FMEA** The video begins with an introduction to the concept of FMEA, explaining its importance in industrial and mechanical contexts. We discuss how FMEA serves as a systematic approach for identifying potential failure modes, their causes, and their effects on system performance, particularly focusing on lubrication systems. **FMEA Process and Steps** Next, we break down the FMEA process into clear, manageable steps. This includes the identification of potential failure modes, assessment of their effects on the system, and determination of their causes. The video provides practical examples from the field of lubrication to illustrate each step, making the information accessible and relatable. **Application in Lubrication Systems** We then apply the FMEA methodology specifically to lubrication systems. This section explores various failure modes, such as lubricant contamination, inadequate lubrication, and component wear, and assesses their potential impacts. The video emphasizes the importance of understanding these failure modes to maintain the reliability and efficiency of machinery. **Risk Prioritization and Mitigation Strategies** An important part of the FMEA process is risk prioritization. The video discusses how to assess the severity, occurrence, and detectability of each failure mode and prioritize them accordingly. We also explore various mitigation strategies, including regular maintenance, monitoring systems, and using high-quality lubricants. **Benefits and Limitations of FMEA** Finally, the video provides a balanced view of FMEA, discussing its benefits in enhancing system reliability and preventing costly downtime, while also acknowledging its limitations. We emphasize that while FMEA is a powerful tool, it should be part of a broader maintenance and reliability strategy. Whether you are an engineer, maintenance professional, or a student of mechanical systems, this video offers a comprehensive guide to understanding and applying FMEA in lubrication systems. Join us to gain valuable insights into this essential process for ensuring the longevity and efficiency of machinery.

In this informative video, we delve into the critical process of Failure Modes and Effects Analysis (FMEA) within the context of lubrication systems. Designed as an accompanying article, this presentation aims to provide viewers with a thorough understanding of FMEA, a proactive tool used to anticipate and prevent potential failures in mechanical systems.

**Introduction to FMEA**
The video begins with an introduction to the concept of FMEA, explaining its importance in industrial and mechanical contexts. We discuss how FMEA serves as a systematic approach for identifying potential failure modes, their causes, and their effects on system performance, particularly focusing on lubrication systems.

**FMEA Process and Steps**
Next, we break down the FMEA process into clear, manageable steps. This includes the identification of potential failure modes, assessment of their effects on the system, and determination of their causes. The video provides practical examples from the field of lubrication to illustrate each step, making the information accessible and relatable.

**Application in Lubrication Systems**
We then apply the FMEA methodology specifically to lubrication systems. This section explores various failure modes, such as lubricant contamination, inadequate lubrication, and component wear, and assesses their potential impacts. The video emphasizes the importance of understanding these failure modes to maintain the reliability and efficiency of machinery.

**Risk Prioritization and Mitigation Strategies**
An important part of the FMEA process is risk prioritization. The video discusses how to assess the severity, occurrence, and detectability of each failure mode and prioritize them accordingly. We also explore various mitigation strategies, including regular maintenance, monitoring systems, and using high-quality lubricants.

**Benefits and Limitations of FMEA**
Finally, the video provides a balanced view of FMEA, discussing its benefits in enhancing system reliability and preventing costly downtime, while also acknowledging its limitations. We emphasize that while FMEA is a powerful tool, it should be part of a broader maintenance and reliability strategy.

Whether you are an engineer, maintenance professional, or a student of mechanical systems, this video offers a comprehensive guide to understanding and applying FMEA in lubrication systems. Join us to gain valuable insights into this essential process for ensuring the longevity and efficiency of machinery.

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YouTube Video UExKZFR0SEY5U3h5Z3RHM1dwYWhUMTFMaUdqRVhHUXZrby4zRjM0MkVCRTg0MkYyQTM0

Failure Modes and Effects Analysis (FMEA)

Oil Analysis 2024-11-15 12:00 am

What are the functions of a lubricant? What are features of a lube oil that go into its selection? So you are telling me it's not just slippy and it does other things? Intrigued? Watch this video and I have made a nice mnemonic story to help you remember the functions of a lubricant based on going on a night out. You will not forget the functions of a lubricant after this video. Explore the essential roles of lubricants in machinery with our expert guide. From reducing friction to protecting against corrosion, lubricating oils and greases are the unsung heroes of machine performance and longevity. This video delves into how lubricants work to dissipate heat, transport contaminants, seal components, and dampen mechanical shock. With insights from Oil Analysis Laboratories, you'll understand why choosing the right lubricant is vital for your machinery's optimal function. In our latest exploration, we delve into the unheralded yet essential world of lubricants. This journey isn't just about rendering things slippery; it's about unlocking the full potential of machinery and equipment. We'll uncover the multifaceted roles lubricants play in our daily lives and industrial endeavours, revealing why they're pivotal in the seamless operation of myriad mechanisms around us. Don't want to watch the video or just need a recap of the function again? **The Core Functions of Lubricants:** 1. **Reducing Friction:** Fundamentally, lubricants are designed to minimise friction between moving parts. This not only ensures smoother operation but also drastically reduces wear and tear, thus prolonging the life of machinery. 2. **Heat Dissipation:** In their battle against friction, lubricants are crucial in managing heat. They absorb and redistribute the heat produced by moving parts, averting overheating and potential damage. 3. **Minimising Wear:** Lubricants create a protective barrier on surfaces, safeguarding them from direct contact and subsequent wear. This protection is essential for maintaining the integrity and functionality of components over time. 4. **Corrosion Prevention:** Many lubricants include additives that help thwart corrosion and rust. By protecting metal surfaces from moisture and environmental contaminants, they ensure the longevity and reliability of machinery. 5. **Contaminant Transport:** In systems like engines, lubricants aid in gathering and transporting contaminants to filters or separators. This cleansing role is critical for maintaining the purity and efficacy of both the lubricant and the system it supports. 6. **Sealing Effect:** In certain applications, lubricants also enhance sealing, filling gaps and preventing the leakage of fluids and gases in engines or hydraulic systems. **Conclusion:** Lubricants are more than mere slick substances; they are the lifeblood of mechanical systems. Their multifunctional nature renders them indispensable in reducing friction, controlling temperature, preventing wear, and ensuring the longevity and efficiency of machinery. Appreciating these functions enhances our understanding of the science and engineering that enable the smooth operation of everything from household appliances to industrial equipment. As we continue to innovate in lubrication technology, we unlock new avenues for efficiency, sustainability, and performance in the mechanical world. Join us in our YouTube video as we delve deeper into these functions and their impact on our world. It's a fascinating journey through the unseen but vital world of lubricants!

What are the functions of a lubricant? What are features of a lube oil that go into its selection? So you are telling me it's not just slippy and it does other things? Intrigued? Watch this video and I have made a nice mnemonic story to help you remember the functions of a lubricant based on going on a night out. You will not forget the functions of a lubricant after this video. Explore the essential roles of lubricants in machinery with our expert guide. From reducing friction to protecting against corrosion, lubricating oils and greases are the unsung heroes of machine performance and longevity. This video delves into how lubricants work to dissipate heat, transport contaminants, seal components, and dampen mechanical shock. With insights from Oil Analysis Laboratories, you'll understand why choosing the right lubricant is vital for your machinery's optimal function.

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YouTube Video UExKZFR0SEY5U3h5Z3RHM1dwYWhUMTFMaUdqRVhHUXZrby4yODlGNEE0NkRGMEEzMEQy

My secret to remembering the functions of lubricating oils and greases in machinery.

Oil Analysis 2020-04-28 12:50 pm

Welcome to our comprehensive guide where we explore the "6 Rights of Lubricant" - a crucial framework for ensuring the longevity and efficiency of your machinery. In this video, we delve deep into each right, providing you with the knowledge and tools to optimize your lubrication practices. 🔍 **What You'll Learn:** 1. **Right Type:** Understand how to select the ideal lubricant type for different machinery. 2. **Right Amount:** Learn the correct lubrication quantities to prevent over or under-lubrication. 3. **Right Place:** Discover the key lubrication points and techniques for effective application. 4. **Right Time:** Timing is everything. Know when to lubricate to maintain optimal machine health. 5. **Right lab Analysis:** Spot the signs of lubricant degradation and contamination. 6. **Right Quality:** select the best lubricant for your machinery 🔥 **Why It Matters:** - Reduce downtime and extend equipment life. - Improve machine efficiency and performance. - Prevent costly repairs and replacements. 💡 **Stay Connected:** - Subscribe for more insightful content on machine maintenance. - Hit the bell icon to stay updated on our latest videos. - Share your thoughts and experiences in the comments below. 📚 **Further Reading:** - Visit our blog [https://learnoilanalysis.com] for in-depth articles on lubrication best practices. 👷 **About Us:** We are industry experts committed to sharing knowledge and best practices in the field of machinery maintenance and lubrication. With years of experience and a passion for excellence, we bring you the most reliable and practical information. Thank you for watching! Don't forget to like, share, and subscribe for more expert insights on machinery maintenance. **#LubricationExcellence #MachineryMaintenance #IndustrialBestPractices**

Welcome to our comprehensive guide where we explore the "6 Rights of Lubricant" - a crucial framework for ensuring the longevity and efficiency of your machinery. In this video, we delve deep into each right, providing you with the knowledge and tools to optimize your lubrication practices.

🔍 **What You'll Learn:**
1. **Right Type:** Understand how to select the ideal lubricant type for different machinery.
2. **Right Amount:** Learn the correct lubrication quantities to prevent over or under-lubrication.
3. **Right Place:** Discover the key lubrication points and techniques for effective application.
4. **Right Time:** Timing is everything. Know when to lubricate to maintain optimal machine health.
5. **Right lab Analysis:** Spot the signs of lubricant degradation and contamination.
6. **Right Quality:** select the best lubricant for your machinery

🔥 **Why It Matters:**
- Reduce downtime and extend equipment life.
- Improve machine efficiency and performance.
- Prevent costly repairs and replacements.

💡 **Stay Connected:**
- Subscribe for more insightful content on machine maintenance.
- Hit the bell icon to stay updated on our latest videos.
- Share your thoughts and experiences in the comments below.

📚 **Further Reading:**
- Visit our blog [https://learnoilanalysis.com] for in-depth articles on lubrication best practices.

👷 **About Us:**
We are industry experts committed to sharing knowledge and best practices in the field of machinery maintenance and lubrication. With years of experience and a passion for excellence, we bring you the most reliable and practical information.

Thank you for watching! Don't forget to like, share, and subscribe for more expert insights on machinery maintenance.

**#LubricationExcellence #MachineryMaintenance #IndustrialBestPractices**

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YouTube Video UExKZFR0SEY5U3h5Z3RHM1dwYWhUMTFMaUdqRVhHUXZrby4yMUQyQTQzMjRDNzMyQTMy

6 rights of lubricant

Oil Analysis 2024-03-24 4:00 pm

Load More... Subscribe

Lubricants

Want some general info on how lubricants work, what they are made of etc? Then this is a good starting series of videos

Lubricants
YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy41NkI0NEY2RDEwNTU3Q0M2 What are the functions of a lubricant? What are features of a lube oil that go into its selection? So you are telling me it's not just slippy and it does other things? Intrigued? Watch this video and I have made a nice mnemonic story to help you remember the functions of a lubricant based on going on a night out. You will not forget the functions of a lubricant after this video. Explore the essential roles of lubricants in machinery with our expert guide. From reducing friction to protecting against corrosion, lubricating oils and greases are the unsung heroes of machine performance and longevity. This video delves into how lubricants work to dissipate heat, transport contaminants, seal components, and dampen mechanical shock. With insights from Oil Analysis Laboratories, you'll understand why choosing the right lubricant is vital for your machinery's optimal function. In our latest exploration, we delve into the unheralded yet essential world of lubricants. This journey isn't just about rendering things slippery; it's about unlocking the full potential of machinery and equipment. We'll uncover the multifaceted roles lubricants play in our daily lives and industrial endeavours, revealing why they're pivotal in the seamless operation of myriad mechanisms around us. Don't want to watch the video or just need a recap of the function again? **The Core Functions of Lubricants:** 1. **Reducing Friction:** Fundamentally, lubricants are designed to minimise friction between moving parts. This not only ensures smoother operation but also drastically reduces wear and tear, thus prolonging the life of machinery. 2. **Heat Dissipation:** In their battle against friction, lubricants are crucial in managing heat. They absorb and redistribute the heat produced by moving parts, averting overheating and potential damage. 3. **Minimising Wear:** Lubricants create a protective barrier on surfaces, safeguarding them from direct contact and subsequent wear. This protection is essential for maintaining the integrity and functionality of components over time. 4. **Corrosion Prevention:** Many lubricants include additives that help thwart corrosion and rust. By protecting metal surfaces from moisture and environmental contaminants, they ensure the longevity and reliability of machinery. 5. **Contaminant Transport:** In systems like engines, lubricants aid in gathering and transporting contaminants to filters or separators. This cleansing role is critical for maintaining the purity and efficacy of both the lubricant and the system it supports. 6. **Sealing Effect:** In certain applications, lubricants also enhance sealing, filling gaps and preventing the leakage of fluids and gases in engines or hydraulic systems. **Conclusion:** Lubricants are more than mere slick substances; they are the lifeblood of mechanical systems. Their multifunctional nature renders them indispensable in reducing friction, controlling temperature, preventing wear, and ensuring the longevity and efficiency of machinery. Appreciating these functions enhances our understanding of the science and engineering that enable the smooth operation of everything from household appliances to industrial equipment. As we continue to innovate in lubrication technology, we unlock new avenues for efficiency, sustainability, and performance in the mechanical world. Join us in our YouTube video as we delve deeper into these functions and their impact on our world. It's a fascinating journey through the unseen but vital world of lubricants!
My secret to remembering the functions of lubricating oils and greases in machinery.
2020-04-28 12:50 pm
What are the functions of a lubricant? What are features of a lube oil that go into its selection? So you are telling me it's not just slippy and it does other things? Intrigued? Watch this video and I have made a nice mnemonic story to help you remember the functions of a lubricant based on going on a night out. You will not forget the functions of a lubricant after this video. Explore the essential roles of lubricants in machinery with our expert guide. From reducing friction to protecting against corrosion, lubricating oils and greases are the unsung heroes of machine performance and longevity. This video delves into how lubricants work to dissipate heat, transport contaminants, seal components, and dampen mechanical shock. With insights from Oil Analysis Laboratories, you'll understand why choosing the right lubricant is vital for your machinery's optimal function. In our latest exploration, we delve into the unheralded yet essential world of lubricants. This journey isn't just about rendering things slippery; it's about unlocking the full potential of machinery and equipment. We'll uncover the multifaceted roles lubricants play in our daily lives and industrial endeavours, revealing why they're pivotal in the seamless operation of myriad mechanisms around us. Don't want to watch the video or just need a recap of the function again? **The Core Functions of Lubricants:** 1. **Reducing Friction:** Fundamentally, lubricants are designed to minimise friction between moving parts. This not only ensures smoother operation but also drastically reduces wear and tear, thus prolonging the life of machinery. 2. **Heat Dissipation:** In their battle against friction, lubricants are crucial in managing heat. They absorb and redistribute the heat produced by moving parts, averting overheating and potential damage. 3. **Minimising Wear:** Lubricants create a protective barrier on surfaces, safeguarding them from direct contact and subsequent wear. This protection is essential for maintaining the integrity and functionality of components over time. 4. **Corrosion Prevention:** Many lubricants include additives that help thwart corrosion and rust. By protecting metal surfaces from moisture and environmental contaminants, they ensure the longevity and reliability of machinery. 5. **Contaminant Transport:** In systems like engines, lubricants aid in gathering and transporting contaminants to filters or separators. This cleansing role is critical for maintaining the purity and efficacy of both the lubricant and the system it supports. 6. **Sealing Effect:** In certain applications, lubricants also enhance sealing, filling gaps and preventing the leakage of fluids and gases in engines or hydraulic systems. **Conclusion:** Lubricants are more than mere slick substances; they are the lifeblood of mechanical systems. Their multifunctional nature renders them indispensable in reducing friction, controlling temperature, preventing wear, and ensuring the longevity and efficiency of machinery. Appreciating these functions enhances our understanding of the science and engineering that enable the smooth operation of everything from household appliances to industrial equipment. As we continue to innovate in lubrication technology, we unlock new avenues for efficiency, sustainability, and performance in the mechanical world. Join us in our YouTube video as we delve deeper into these functions and their impact on our world. It's a fascinating journey through the unseen but vital world of lubricants!

What are the functions of a lubricant? What are features of a lube oil that go into its selection? So you are telling me it's not just slippy and it does other things? Intrigued? Watch this video and I have made a nice mnemonic story to help you remember the functions of a lubricant based on going on a night out. You will not forget the functions of a lubricant after this video. Explore the essential roles of lubricants in machinery with our expert guide. From reducing friction to protecting against corrosion, lubricating oils and greases are the unsung heroes of machine performance and longevity. This video delves into how lubricants work to dissipate heat, transport contaminants, seal components, and dampen mechanical shock. With insights from Oil Analysis Laboratories, you'll understand why choosing the right lubricant is vital for your machinery's optimal function.

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YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy41NkI0NEY2RDEwNTU3Q0M2

My secret to remembering the functions of lubricating oils and greases in machinery.

Oil Analysis 2020-04-28 12:50 pm

Watch now to find about the five base oil groups. This detailed exploration offers a comprehensive understanding of the distinct characteristics and applications of each group, vital for professionals and enthusiasts in the field of oil analysis and lubrication. 1. Group I: We start with Group I oils, exploring their solvent-refined process, which results in less refined oil with higher sulphur content. This section highlights their common uses in less-demanding applications and the reason behind their declining popularity in favour of more advanced oils. 2. Group II: Next, we examine Group II oils, which are manufactured through hydrocracking. These oils are purer and have better antioxidation properties than Group I. Our discussion includes their versatility in various applications and their growing preference in the industry. 3. Group III: Group III oils, often referred to as ‘synthetic’ in some markets, undergo further hydrocracking, making them even more refined. We discuss their superior performance in extreme temperatures and their increasing use in high-performance lubricants. 4. Group IV: Polyalphaolefins (PAOs), which make up Group IV, are true synthetic oils. This section explains their synthesis process and why they are favoured for their exceptional thermal stability, low-temperature fluidity, and extended life span. 5. Group V: Finally, we cover Group V, a diverse group of oils not defined by a specific chemical composition. This part explores their unique properties and why they are often used in specialised applications or as additives to enhance other base oils.

Explainer about group 1 to 5 base oils and what they mean. Unlock the secrets of base oils with our comprehensive guide to Groups I to V. Whether you're in the automotive industry, involved in industrial machinery maintenance, or simply a lubricant enthusiast, this video is your go-to resource for understanding the full spectrum of base oils. Discover the distinct characteristics, production processes, and performance benefits of each base oil group, presented by Oil Analysis Laboratories, your trusted experts in fluid analysis. Stay ahead of the curve with our Learn Oil Analysis tutorials.

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YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy4wMTcyMDhGQUE4NTIzM0Y5

🛢️ Group I to V (1 to 5) base oil - Super Easy Explanation 🛢️

Oil Analysis 2023-10-02 12:25 pm

Unlock the secrets of ZDDP (Zinc Dialkyl Dithiophosphate) in lubricating oils with our comprehensive video guide. Embark on a journey to explore the complex role of Zinc Dialkyl Dithiophosphate (ZDDP) and zinc as antiwear additives in lubricants in our latest video. This insightful discussion is tailored for lubrication specialists, environmentalists, and anyone interested in the evolving landscape of lubricant formulations. ZDDP has long been a standard additive in engine oils, prized for its exceptional antiwear and antioxidation properties. However, the environmental impact and potential negative effects on certain catalytic converters have sparked debate, leading to a push towards zinc-free alternatives. In this video, we delve deep into the science behind ZDDP and zinc. We discuss their mechanisms of action, explaining how they form protective layers on metal surfaces to prevent wear. The benefits of zinc, particularly in high-pressure environments where metal-to-metal contact occurs, are highlighted, showcasing its role in prolonging machinery life. However, every story has two sides. We also explore the arguments against the use of zinc. Concerns about its long-term environmental impact, its effect on catalytic converters in automotive applications, and the advent of new, potentially more environmentally friendly additives are examined in detail. This balanced approach provides a comprehensive understanding of the role of zinc in lubricants, encouraging viewers to form their own opinions. We address questions like: Is the environmental impact significant enough to outweigh the benefits of zinc? Are the newer zinc-free additives equally effective in protecting machinery? The video is designed not just to inform but also to engage. We invite viewers to join the conversation and share their thoughts in the comments section. Whether you’re in favour of continuing the use of ZDDP and zinc or advocate for zinc-free alternatives, we welcome diverse perspectives and insights. Join us in this intriguing exploration of ZDDP and zinc in lubricants. Discover whether they are heroes in the world of lubrication, essential for the longevity and efficiency of machinery, or villains in the environmental narrative, necessitating the move towards greener alternatives. Your views matter, and we look forward to hearing them! For more insightful resources and expert knowledge, visit our blog at https://LearnOilAnalysis.com. #OilAnalysis #ZDDP #AntiWearAdditive #LubricationScience #MachineryMaintenance #Antiwear additive #Preventative maintenance #reactive maintenance #zddp oil additive #Zinc free oil #zinc in oil

Unlock the secrets of ZDDP (Zinc Dialkyl Dithiophosphate) in lubricating oils with our comprehensive video guide. Discover how this crucial anti-wear additive safeguards your machinery by reducing friction and preventing metal-to-metal contact under high pressure. Ideal for professionals and enthusiasts in the field of oil analysis and machinery maintenance, this video offers an in-depth look at the chemistry and functionality of ZDDP. Dive into the world of advanced lubrication technology and learn why ZDDP is a key component in extending the life of your equipment. Stay ahead in the industry by understanding the impact of ZDDP on oil performance and equipment longevity. For more insightful resources and expert knowledge, visit our blog at https://LearnOilAnalysis.com. #OilAnalysis #ZDDP #AntiWearAdditive #LubricationScience #MachineryMaintenance

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YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy4yODlGNEE0NkRGMEEzMEQy

Nasty or Nice? ZDDP Zinc ⚙️ Anti-Wear 🛡️ Lube Oil Additives

Oil Analysis 2023-11-14 6:00 am

Understanding Engine Oil Viscosity Grades. In this detailed exploration, we dive into the world of engine oil viscosity grades, a pivotal factor in ensuring engine performance and durability. The video demystifies the meaning behind the numbers and letters that categorise oil grades, such as 5W-30 or 10W-40, and elucidates their significance for vehicle owners. Understanding the right viscosity for your engine can markedly impact its efficiency and longevity, especially under varying environmental conditions. This presentation explains how viscosity grades are determined, highlighting the importance of selecting the appropriate oil for specific vehicle requirements and how changes in temperature influence this choice. With the aid of animations and expert insights, the video covers the fundamentals of lubrication, illustrating how engine oil minimises wear and assists in maintaining an optimal operating temperature. The comparison between synthetic and conventional oils is also discussed, showcasing the advancements in lubrication technology that offer enhanced protection and performance. This content is crafted for individuals keen on automotive care, offering in-depth knowledge on a crucial aspect of vehicle maintenance. It guides viewers through the complex topic of oil viscosity, ensuring they are well-informed to make decisions that will benefit their engine’s health and operational efficiency. For more educational content on oil analysis and lubrication, ensure you subscribe to our channel. Your engagement helps us provide valuable information tailored to your automotive interests. Visit https://learnoilanalysis.com to learn more about #0W20 #10W40 #15W40 #5W30 #SAE #Engine oil #viscosity

Understanding Engine Oil Viscosity Grades. In this detailed exploration, we dive into the world of engine oil viscosity grades, a pivotal factor in ensuring engine performance and durability. The video demystifies the meaning behind the numbers and letters that categorise oil grades, such as 5W-30 or 10W-40, and elucidates their significance for vehicle owners.

Understanding the right viscosity for your engine can markedly impact its efficiency and longevity, especially under varying environmental conditions. This presentation explains how viscosity grades are determined, highlighting the importance of selecting the appropriate oil for specific vehicle requirements and how changes in temperature influence this choice.

With the aid of animations and expert insights, the video covers the fundamentals of lubrication, illustrating how engine oil minimises wear and assists in maintaining an optimal operating temperature. The comparison between synthetic and conventional oils is also discussed, showcasing the advancements in lubrication technology that offer enhanced protection and performance.

This content is crafted for individuals keen on automotive care, offering in-depth knowledge on a crucial aspect of vehicle maintenance. It guides viewers through the complex topic of oil viscosity, ensuring they are well-informed to make decisions that will benefit their engine’s health and operational efficiency.

For more educational content on oil analysis and lubrication, ensure you subscribe to our channel. Your engagement helps us provide valuable information tailored to your automotive interests. Visit https://learnoilanalysis.com to learn more about #0W20 #10W40 #15W40 #5W30 #SAE #Engine oil #viscosity

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YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy41MjE1MkI0OTQ2QzJGNzNG

🚗 Car Engine Oil Viscosity Grades (SAE Multigrades) 🛢️

Oil Analysis 2024-02-12 5:00 pm

Where should greases be used vs lubricating oils. How are they different? Embark on a detailed journey through the world of lubrication in our latest video, where we meticulously dissect the advantages and disadvantages of oil and grease as lubricants. This video is a must-watch for professionals in the field of machinery maintenance, oil analysis, and lubrication, providing a thorough understanding of when and why to choose one lubricant over the other. Advantages of Oil Lubrication: 1. Efficient Heat Dissipation: Oil’s fluidity allows it to carry away heat from surfaces, aiding in cooling machinery components. 2. Effective in High-Speed Conditions: Ideal for applications involving high-speed mechanisms due to its lower resistance compared to grease. 3. Ease of Application: Oil can easily reach intricate parts of machinery, ensuring thorough lubrication. 4. Contamination Detection: Being less opaque, oil makes it easier to detect contaminants, facilitating maintenance. Disadvantages of Oil Lubrication: 1. Leakage Potential: Oil’s fluidity can lead to leakage issues in certain applications. 2. Complex Circulation Systems Required: Often necessitates more sophisticated systems for application and recovery. 3. Frequent Re-lubrication: May require more frequent application compared to grease in some scenarios. Advantages of Grease Lubrication: 1. Stays in Place: Grease’s consistency ensures it remains on the lubricating surface, ideal for vertical or inclined surfaces. 2. Sealing Effect: Provides a protective barrier against contaminants and moisture. 3. Suitable for Intermittent Operations: Maintains its lubricating properties even when machinery is not in constant use. 4. Reduced Leakage Risk: Its thickness reduces the potential for leakage compared to oil. Disadvantages of Grease Lubrication: 1. Contaminant Trapping: Grease can trap and hold contaminants close to surfaces. 2. Challenging Re-lubrication Scheduling: Determining the correct re-lubrication intervals can be more difficult. 3. Limited Cooling Capacity: Grease does not dissipate heat as effectively as oil, which can be a drawback in high-temperature environments. In the video, we introduce you to the decisions lubrication engineers need to make on a daily basis including when to pick oil or grease. Tune in to enhance your understanding and make informed decisions in your lubrication strategies. Visit https://learnoilanalysis.com to learn more about grease and oils. Topics covered include: #thickener #lithiumgrease #oilanalysis

Where should greases be used vs lubricating oils. How are they different?

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YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy4wOTA3OTZBNzVEMTUzOTMy

What's the difference between an oil and grease?

Oil Analysis 2024-01-10 5:00 am

8 5

YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy4xMkVGQjNCMUM1N0RFNEUx

Calcium & Magnesium In Lube Oil

Oil Analysis 2024-06-02 10:05 pm

Welcome to our comprehensive guide where we explore the "6 Rights of Lubricant" - a crucial framework for ensuring the longevity and efficiency of your machinery. In this video, we delve deep into each right, providing you with the knowledge and tools to optimize your lubrication practices. 🔍 **What You'll Learn:** 1. **Right Type:** Understand how to select the ideal lubricant type for different machinery. 2. **Right Amount:** Learn the correct lubrication quantities to prevent over or under-lubrication. 3. **Right Place:** Discover the key lubrication points and techniques for effective application. 4. **Right Time:** Timing is everything. Know when to lubricate to maintain optimal machine health. 5. **Right lab Analysis:** Spot the signs of lubricant degradation and contamination. 6. **Right Quality:** select the best lubricant for your machinery 🔥 **Why It Matters:** - Reduce downtime and extend equipment life. - Improve machine efficiency and performance. - Prevent costly repairs and replacements. 💡 **Stay Connected:** - Subscribe for more insightful content on machine maintenance. - Hit the bell icon to stay updated on our latest videos. - Share your thoughts and experiences in the comments below. 📚 **Further Reading:** - Visit our blog [https://learnoilanalysis.com] for in-depth articles on lubrication best practices. 👷 **About Us:** We are industry experts committed to sharing knowledge and best practices in the field of machinery maintenance and lubrication. With years of experience and a passion for excellence, we bring you the most reliable and practical information. Thank you for watching! Don't forget to like, share, and subscribe for more expert insights on machinery maintenance. **#LubricationExcellence #MachineryMaintenance #IndustrialBestPractices**

Welcome to our comprehensive guide where we explore the "6 Rights of Lubricant" - a crucial framework for ensuring the longevity and efficiency of your machinery. In this video, we delve deep into each right, providing you with the knowledge and tools to optimize your lubrication practices.

🔍 **What You'll Learn:**
1. **Right Type:** Understand how to select the ideal lubricant type for different machinery.
2. **Right Amount:** Learn the correct lubrication quantities to prevent over or under-lubrication.
3. **Right Place:** Discover the key lubrication points and techniques for effective application.
4. **Right Time:** Timing is everything. Know when to lubricate to maintain optimal machine health.
5. **Right lab Analysis:** Spot the signs of lubricant degradation and contamination.
6. **Right Quality:** select the best lubricant for your machinery

🔥 **Why It Matters:**
- Reduce downtime and extend equipment life.
- Improve machine efficiency and performance.
- Prevent costly repairs and replacements.

💡 **Stay Connected:**
- Subscribe for more insightful content on machine maintenance.
- Hit the bell icon to stay updated on our latest videos.
- Share your thoughts and experiences in the comments below.

📚 **Further Reading:**
- Visit our blog [https://learnoilanalysis.com] for in-depth articles on lubrication best practices.

👷 **About Us:**
We are industry experts committed to sharing knowledge and best practices in the field of machinery maintenance and lubrication. With years of experience and a passion for excellence, we bring you the most reliable and practical information.

Thank you for watching! Don't forget to like, share, and subscribe for more expert insights on machinery maintenance.

**#LubricationExcellence #MachineryMaintenance #IndustrialBestPractices**

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YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy41MzJCQjBCNDIyRkJDN0VD

6 rights of lubricant

Oil Analysis 2024-03-24 4:00 pm

Contrary to popular belief not all sludge in oil is bad. In this video, we delve into the complex world of friction polymers and their critical role in modern lubricating oils. We start by exploring the basic concept of friction polymers, detailing their chemical structure and how they interact within the oil to reduce friction. The discussion then shifts to the latest advancements in polymer technology, highlighting how these developments enhance the performance and longevity of lubricating oils in various machinery. Whether you're a professional in the lubrication field or an enthusiast keen to understand the science behind lubricating oils, this video offers a comprehensive yet accessible exploration of friction polymers. Join us for an enlightening journey into a crucial aspect of modern lubrication technology.

Contrary to popular belief not all sludge in oil is bad. In this video, we delve into the complex world of friction polymers and their critical role in modern lubricating oils. We start by exploring the basic concept of friction polymers, detailing their chemical structure and how they interact within the oil to reduce friction. The discussion then shifts to the latest advancements in polymer technology, highlighting how these developments enhance the performance and longevity of lubricating oils in various machinery.

Whether you're a professional in the lubrication field or an enthusiast keen to understand the science behind lubricating oils, this video offers a comprehensive yet accessible exploration of friction polymers. Join us for an enlightening journey into a crucial aspect of modern lubrication technology.

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YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy5DQUNERDQ2NkIzRUQxNTY1

Friction Polymers - when sludge is GOOD???

Oil Analysis 2024-04-24 8:00 am

In our latest video, we embark on an educational journey exploring the intricacies of the four fundamental types of lubrication: boundary, hydrodynamic, hydrostatic, and elastohydrodynamic. This is designed to enhance your understanding of how these lubrication methods are pivotal in minimizing wear and friction across various mechanical systems. **Boundary Lubrication** Our exploration begins with boundary lubrication, a critical mechanism in scenarios characterized by high loads and low speeds, where surface contact is inevitable. The video elucidates how lubricants, bolstered by specific additives, form a protective layer on surfaces, preventing direct metal-to-metal contact. This segment is crucial for professionals dealing with machinery that operates under heavy loads, offering insights into how to optimize lubricant performance in such conditions. **Mixed lubrication** You will have to watch the video for this bit, but I always found this the strangest bit when I was learning as it didn't make sense how something could be in between (either its lubricating or it's not surely) but hopefully we help explain this in the video. **Hydrodynamic Lubrication** Shifting gears, we dive into the realm of hydrodynamic lubrication, predominantly observed in high-speed, low-load environments. Here, we dissect the process of forming a lubricant film capable of completely separating moving surfaces, thereby reducing wear and friction. The video provides a vivid depiction of this fluid film in action, illustrating its importance in a wide array of machinery, from automotive engines to industrial equipment. **Hydrostatic Lubrication** Our narrative then navigates towards hydrostatic lubrication, highlighting its unique operation where an external pump is employed to deliver pressurized lubricant, ensuring a consistent film between contact surfaces. This section is particularly enlightening for those involved in the maintenance and operation of precision machinery, where consistent lubrication is paramount for accuracy and longevity. **Elastohydrodynamic Lubrication (EHL)** Concluding our educational tour, we examine elastohydrodynamic lubrication (EHL), a sophisticated lubrication type that comes into play under high-pressure conditions, causing elastic deformation of the surfaces, such as in gears and bearings. The video demystifies the complex interactions in EHL, providing a clear understanding of its role in modern mechanical applications. We make complex lubrication concepts accessible to a wide audience. From engineering students to industry professionals, this video serves as an invaluable resource, offering a detailed, yet comprehensible guide to the diverse world of lubrication methods. Join us in this enlightening exploration, and enhance your knowledge of the vital role lubrication plays in the efficiency and longevity of mechanical systems.

In our latest video, we embark on an educational journey exploring the intricacies of the four fundamental types of lubrication: boundary, hydrodynamic, hydrostatic, and elastohydrodynamic. This is designed to enhance your understanding of how these lubrication methods are pivotal in minimizing wear and friction across various mechanical systems.

**Boundary Lubrication**
Our exploration begins with boundary lubrication, a critical mechanism in scenarios characterized by high loads and low speeds, where surface contact is inevitable. The video elucidates how lubricants, bolstered by specific additives, form a protective layer on surfaces, preventing direct metal-to-metal contact. This segment is crucial for professionals dealing with machinery that operates under heavy loads, offering insights into how to optimize lubricant performance in such conditions.

**Mixed lubrication**

You will have to watch the video for this bit, but I always found this the strangest bit when I was learning as it didn't make sense how something could be in between (either its lubricating or it's not surely) but hopefully we help explain this in the video.

**Hydrodynamic Lubrication**
Shifting gears, we dive into the realm of hydrodynamic lubrication, predominantly observed in high-speed, low-load environments. Here, we dissect the process of forming a lubricant film capable of completely separating moving surfaces, thereby reducing wear and friction. The video provides a vivid depiction of this fluid film in action, illustrating its importance in a wide array of machinery, from automotive engines to industrial equipment.

**Hydrostatic Lubrication**
Our narrative then navigates towards hydrostatic lubrication, highlighting its unique operation where an external pump is employed to deliver pressurized lubricant, ensuring a consistent film between contact surfaces. This section is particularly enlightening for those involved in the maintenance and operation of precision machinery, where consistent lubrication is paramount for accuracy and longevity.

**Elastohydrodynamic Lubrication (EHL)**
Concluding our educational tour, we examine elastohydrodynamic lubrication (EHL), a sophisticated lubrication type that comes into play under high-pressure conditions, causing elastic deformation of the surfaces, such as in gears and bearings. The video demystifies the complex interactions in EHL, providing a clear understanding of its role in modern mechanical applications.

We make complex lubrication concepts accessible to a wide audience. From engineering students to industry professionals, this video serves as an invaluable resource, offering a detailed, yet comprehensible guide to the diverse world of lubrication methods. Join us in this enlightening exploration, and enhance your knowledge of the vital role lubrication plays in the efficiency and longevity of mechanical systems.

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YouTube Video UExKZFR0SEY5U3h5aUZsZlpwZVhzajl3WS11czhRZVJSZy45NDk1REZENzhEMzU5MDQz

Lubrication Types: Boundary, Hydrodynamic, Hydrostatic, Mixed, Elastohydrodynamic

Oil Analysis 2024-03-01 12:00 am

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Elemental Analysis (ICP)

Want to understand more about elemental analysis and the tests associated with it?

Elemental Analysis (ICP)
YouTube Video UExKZFR0SEY5U3h5aHl6Qlh2ekZxNVREcEc3V3ZTbHVlTy41NkI0NEY2RDEwNTU3Q0M2 Unveiling Wear Metals and Additives in Lubricating Oils: ICP Analysis and PQ Index Insights. Embark on an enlightening journey into the world of wear metals, additive elements, and their detection in lubricating oils with our latest video. This detailed guide is an invaluable resource for maintenance engineers, lubrication specialists, and anyone interested in the advanced techniques used in oil analysis for machinery maintenance. The video begins with an overview of wear metals and additive elements in lubricating oils, discussing their origins and significance in machinery health. We illustrate how different elements can indicate specific types of wear or contamination. For instance, iron might point to general wear, whereas chromium could suggest bearing wear, and silicon often indicates dirt ingress. Next, we delve into the principles of Inductively Coupled Plasma (ICP) spectroscopy, a pivotal method in oil analysis. The presenter explains how ICP works to detect and measure the quantities of various metal elements in oil, offering insights into the internal condition of machinery. The discussion includes the benefits and limitations of ICP, providing a well-rounded understanding of its application in industrial settings. We then explore the PQ (Particle Quantifier) Index, a technique used to quantify ferrous wear particles in lubricating oils. The PQ Index is crucial for detecting larger particles that ICP might miss, thereby offering a more comprehensive view of wear trends. We discuss how the combination of ICP and PQ Index data can provide a more complete picture of the wear status in machinery. The video also covers the typical sources of various elements detected in oil analysis. For example, copper may originate from bushings or bearings, zinc from anti-wear additives, and molybdenum from certain types of grease or additives. Understanding these element sources aids in pinpointing potential issues within different machine components. Throughout the presentation, we maintain an engaging and informative style, ensuring complex concepts are made accessible. The video is filled with real-world examples, charts, and imagery to enhance understanding, making it ideal for both beginners and seasoned professionals in the field of machinery maintenance and reliability. Join us in this comprehensive exploration of wear metals, additive elements, and the innovative methods used for their analysis in lubricating oils. Whether you’re looking to deepen your technical knowledge or seeking practical insights for your maintenance strategy, this video is an essential addition to your learning toolkit. Visit https://learnoilanalysis.com & https://oilanalysislab.com to find out more.
Learn Oil Analysis - Wear Metal Elements (ICP) & PQ
2018-01-03 8:17 pm
Unveiling Wear Metals and Additives in Lubricating Oils: ICP Analysis and PQ Index Insights. Embark on an enlightening journey into the world of wear metals, additive elements, and their detection in lubricating oils with our latest video. This detailed guide is an invaluable resource for maintenance engineers, lubrication specialists, and anyone interested in the advanced techniques used in oil analysis for machinery maintenance. The video begins with an overview of wear metals and additive elements in lubricating oils, discussing their origins and significance in machinery health. We illustrate how different elements can indicate specific types of wear or contamination. For instance, iron might point to general wear, whereas chromium could suggest bearing wear, and silicon often indicates dirt ingress. Next, we delve into the principles of Inductively Coupled Plasma (ICP) spectroscopy, a pivotal method in oil analysis. The presenter explains how ICP works to detect and measure the quantities of various metal elements in oil, offering insights into the internal condition of machinery. The discussion includes the benefits and limitations of ICP, providing a well-rounded understanding of its application in industrial settings. We then explore the PQ (Particle Quantifier) Index, a technique used to quantify ferrous wear particles in lubricating oils. The PQ Index is crucial for detecting larger particles that ICP might miss, thereby offering a more comprehensive view of wear trends. We discuss how the combination of ICP and PQ Index data can provide a more complete picture of the wear status in machinery. The video also covers the typical sources of various elements detected in oil analysis. For example, copper may originate from bushings or bearings, zinc from anti-wear additives, and molybdenum from certain types of grease or additives. Understanding these element sources aids in pinpointing potential issues within different machine components. Throughout the presentation, we maintain an engaging and informative style, ensuring complex concepts are made accessible. The video is filled with real-world examples, charts, and imagery to enhance understanding, making it ideal for both beginners and seasoned professionals in the field of machinery maintenance and reliability. Join us in this comprehensive exploration of wear metals, additive elements, and the innovative methods used for their analysis in lubricating oils. Whether you’re looking to deepen your technical knowledge or seeking practical insights for your maintenance strategy, this video is an essential addition to your learning toolkit. Visit https://learnoilanalysis.com & https://oilanalysislab.com to find out more.

Video covering wear metals, additive elements, principles of ICP (inductively coupled plasma), PQ ferrous debris particle quantification in lubricating oils. Visit https://learnoilanalysis.com & https://oilanalysislab.com to find out more.

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YouTube Video UExKZFR0SEY5U3h5aHl6Qlh2ekZxNVREcEc3V3ZTbHVlTy41NkI0NEY2RDEwNTU3Q0M2

Learn Oil Analysis - Wear Metal Elements (ICP) & PQ

Oil Analysis 2018-01-03 8:17 pm

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YouTube Video UExKZFR0SEY5U3h5aHl6Qlh2ekZxNVREcEc3V3ZTbHVlTy4wOTA3OTZBNzVEMTUzOTMy

Calcium & Magnesium In Lube Oil

Oil Analysis 2024-06-02 10:05 pm

Unlock the secrets of ZDDP (Zinc Dialkyl Dithiophosphate) in lubricating oils with our comprehensive video guide. Embark on a journey to explore the complex role of Zinc Dialkyl Dithiophosphate (ZDDP) and zinc as antiwear additives in lubricants in our latest video. This insightful discussion is tailored for lubrication specialists, environmentalists, and anyone interested in the evolving landscape of lubricant formulations. ZDDP has long been a standard additive in engine oils, prized for its exceptional antiwear and antioxidation properties. However, the environmental impact and potential negative effects on certain catalytic converters have sparked debate, leading to a push towards zinc-free alternatives. In this video, we delve deep into the science behind ZDDP and zinc. We discuss their mechanisms of action, explaining how they form protective layers on metal surfaces to prevent wear. The benefits of zinc, particularly in high-pressure environments where metal-to-metal contact occurs, are highlighted, showcasing its role in prolonging machinery life. However, every story has two sides. We also explore the arguments against the use of zinc. Concerns about its long-term environmental impact, its effect on catalytic converters in automotive applications, and the advent of new, potentially more environmentally friendly additives are examined in detail. This balanced approach provides a comprehensive understanding of the role of zinc in lubricants, encouraging viewers to form their own opinions. We address questions like: Is the environmental impact significant enough to outweigh the benefits of zinc? Are the newer zinc-free additives equally effective in protecting machinery? The video is designed not just to inform but also to engage. We invite viewers to join the conversation and share their thoughts in the comments section. Whether you’re in favour of continuing the use of ZDDP and zinc or advocate for zinc-free alternatives, we welcome diverse perspectives and insights. Join us in this intriguing exploration of ZDDP and zinc in lubricants. Discover whether they are heroes in the world of lubrication, essential for the longevity and efficiency of machinery, or villains in the environmental narrative, necessitating the move towards greener alternatives. Your views matter, and we look forward to hearing them! For more insightful resources and expert knowledge, visit our blog at https://LearnOilAnalysis.com. #OilAnalysis #ZDDP #AntiWearAdditive #LubricationScience #MachineryMaintenance #Antiwear additive #Preventative maintenance #reactive maintenance #zddp oil additive #Zinc free oil #zinc in oil

Unlock the secrets of ZDDP (Zinc Dialkyl Dithiophosphate) in lubricating oils with our comprehensive video guide. Discover how this crucial anti-wear additive safeguards your machinery by reducing friction and preventing metal-to-metal contact under high pressure. Ideal for professionals and enthusiasts in the field of oil analysis and machinery maintenance, this video offers an in-depth look at the chemistry and functionality of ZDDP. Dive into the world of advanced lubrication technology and learn why ZDDP is a key component in extending the life of your equipment. Stay ahead in the industry by understanding the impact of ZDDP on oil performance and equipment longevity. For more insightful resources and expert knowledge, visit our blog at https://LearnOilAnalysis.com. #OilAnalysis #ZDDP #AntiWearAdditive #LubricationScience #MachineryMaintenance

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YouTube Video UExKZFR0SEY5U3h5aHl6Qlh2ekZxNVREcEc3V3ZTbHVlTy4yODlGNEE0NkRGMEEzMEQy

Nasty or Nice? ZDDP Zinc ⚙️ Anti-Wear 🛡️ Lube Oil Additives

Oil Analysis 2023-11-14 6:00 am

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Oil Analysis Particles

Want to understand more about particles, filtration, microscopy etc watch this video list to help you

Particles Explained
YouTube Video UExKZFR0SEY5U3h5aGgtWEk0SE11MmxpcEFIOTlzT2xhdC4wOTA3OTZBNzVEMTUzOTMy Ever wondered what a nature documentary would be like for oil samples? No? Not surpised, but the idea occured to me in a dream, so thought I would make a video of it as a bit of fun. Note: Voice-over showing similarity to any famous nature documentary persons is entirely coincidental, but I agree a strong likeness in the accent.
Secret life of oil particles (How a nature documentary would describe oil analysis)
2023-12-28 8:42 pm
Ever wondered what a nature documentary would be like for oil samples? No? Not surpised, but the idea occured to me in a dream, so thought I would make a video of it as a bit of fun. Note: Voice-over showing similarity to any famous nature documentary persons is entirely coincidental, but I agree a strong likeness in the accent.

Ever wondered what a nature documentary would be like for oil samples? No? Not surpised, but the idea occured to me in a dream, so thought I would make a video of it as a bit of fun. Note: Voice-over showing similarity to any famous nature documentary persons is entirely coincidental, but I agree a strong likeness in the accent.

1 0

YouTube Video UExKZFR0SEY5U3h5aGgtWEk0SE11MmxpcEFIOTlzT2xhdC4wOTA3OTZBNzVEMTUzOTMy

Secret life of oil particles (How a nature documentary would describe oil analysis)

Oil Analysis 2023-12-28 8:42 pm

Unveiling Wear Metals and Additives in Lubricating Oils: ICP Analysis and PQ Index Insights. Embark on an enlightening journey into the world of wear metals, additive elements, and their detection in lubricating oils with our latest video. This detailed guide is an invaluable resource for maintenance engineers, lubrication specialists, and anyone interested in the advanced techniques used in oil analysis for machinery maintenance. The video begins with an overview of wear metals and additive elements in lubricating oils, discussing their origins and significance in machinery health. We illustrate how different elements can indicate specific types of wear or contamination. For instance, iron might point to general wear, whereas chromium could suggest bearing wear, and silicon often indicates dirt ingress. Next, we delve into the principles of Inductively Coupled Plasma (ICP) spectroscopy, a pivotal method in oil analysis. The presenter explains how ICP works to detect and measure the quantities of various metal elements in oil, offering insights into the internal condition of machinery. The discussion includes the benefits and limitations of ICP, providing a well-rounded understanding of its application in industrial settings. We then explore the PQ (Particle Quantifier) Index, a technique used to quantify ferrous wear particles in lubricating oils. The PQ Index is crucial for detecting larger particles that ICP might miss, thereby offering a more comprehensive view of wear trends. We discuss how the combination of ICP and PQ Index data can provide a more complete picture of the wear status in machinery. The video also covers the typical sources of various elements detected in oil analysis. For example, copper may originate from bushings or bearings, zinc from anti-wear additives, and molybdenum from certain types of grease or additives. Understanding these element sources aids in pinpointing potential issues within different machine components. Throughout the presentation, we maintain an engaging and informative style, ensuring complex concepts are made accessible. The video is filled with real-world examples, charts, and imagery to enhance understanding, making it ideal for both beginners and seasoned professionals in the field of machinery maintenance and reliability. Join us in this comprehensive exploration of wear metals, additive elements, and the innovative methods used for their analysis in lubricating oils. Whether you’re looking to deepen your technical knowledge or seeking practical insights for your maintenance strategy, this video is an essential addition to your learning toolkit. Visit https://learnoilanalysis.com & https://oilanalysislab.com to find out more.

Video covering wear metals, additive elements, principles of ICP (inductively coupled plasma), PQ ferrous debris particle quantification in lubricating oils. Visit https://learnoilanalysis.com & https://oilanalysislab.com to find out more.

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YouTube Video UExKZFR0SEY5U3h5aGgtWEk0SE11MmxpcEFIOTlzT2xhdC41NkI0NEY2RDEwNTU3Q0M2

Learn Oil Analysis - Wear Metal Elements (ICP) & PQ

Oil Analysis 2018-01-03 8:17 pm

Embark on an enlightening journey through the complexities of oil analysis in this three-part video series. We delve into ISO4406 and NAS particle counts in laser particle counting, gravimetric analysis, ferrographic analysis, and teach you simple DIY appearance tests. This series is crafted for both industry professionals and enthusiasts keen to enhance their knowledge of oil analysis techniques. 1. ISO4406 and NAS Particle Counts in Laser Particle Counting: The first part of our series focuses on understanding ISO4406 and NAS particle counts through laser particle counting. We explain the importance of these standards in assessing particulate contamination in lubricants, highlighting the precision and reliability of laser particle counting in determining cleanliness levels. The distinction between ISO4406 and NAS standards is clearly outlined, offering viewers a comprehensive understanding of their application in maintaining system health. 2. Gravimetric and Ferrographic Analysis: Next, we explore the intricacies of gravimetric and ferrographic analysis. The section on gravimetric analysis discusses how it helps in quantifying total contaminant weight in oil samples, an essential factor in evaluating overall cleanliness. In the ferrographic analysis segment, we demonstrate how this method isolates ferrous wear particles, providing insightful data on equipment wear and potential failure causes. Our explanations demystify these advanced techniques, making them accessible to a broad audience. 3. DIY Appearance Tests: Concluding the series, we focus on simple DIY appearance tests that viewers can perform. This segment teaches how to visually inspect oil samples to identify signs of contamination, degradation, or equipment issues. We discuss various aspects of oil appearance, such as color, clarity, and visible contaminants, providing practical tips for quick, on-site oil assessment. These easy-to-follow methods are invaluable for immediate insights into oil conditions. Subscribe for more in-depth guides and insights into the world of oil analysis and lubrication. Your engagement helps us continue to provide educational content that is the only completely free source of ISO18436 lube analysis training.

Explanation of all things particles with relation to oil and fluid analysis including laser particle counting, gravimetric testing, elemental analysis, microscopic ferrography and appearance ratings. Video courtesy of learn oil analysis and oil analysis laboratories video training courses.

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YouTube Video UExKZFR0SEY5U3h5aGgtWEk0SE11MmxpcEFIOTlzT2xhdC4yODlGNEE0NkRGMEEzMEQy

Particle counting ISO4406 NAS1638 SAE4059 sediment total contamination ferrography and appearances

Oil Analysis 2020-04-23 3:41 pm

LubeWear analysis can detect wear ordinary analysis can't see. Now you can visualise the wear like never before with the new LubeWear 3D imaging service. Want to find out more visit www.LubeWear.com

LubeWear analysis can detect wear ordinary analysis can't see. Now you can visualise the wear like never before with the new LubeWear 3D imaging service. Want to find out more visit www.LubeWear.com

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YouTube Video UExKZFR0SEY5U3h5aGgtWEk0SE11MmxpcEFIOTlzT2xhdC4wMTcyMDhGQUE4NTIzM0Y5

LubeWear Brand new 3D wear particle analysis Service

Oil Analysis 2021-07-23 2:49 pm

Understanding Abrasive Cutting Wear: 2-Body and 3-Body Wear Mechanisms has never been easier with the help of this video. We delve into the complex world of abrasive cutting wear, focusing on the distinct concepts of 2-body and 3-body wear mechanisms. These wear processes are crucial in understanding the efficiency and longevity of machinery in industries reliant on precision cutting and lubrication systems. We begin by elucidating the principles of 2-body abrasive wear, a scenario where the abrasive particles are rigidly fixed and directly interact with the surface. This section is enriched with real-world examples and microscopic footage, offering a clear understanding of how 2-body wear can impact machinery over time. The discussion then progresses to 3-body abrasive wear, characterized by loose abrasive particles trapped between two surfaces. Through high-quality animations and expert interviews, we explore the dynamics of this wear type and its implications in various industrial settings. Additionally, the video provides practical advice on mitigating these wear types through effective lubrication strategies and oil analysis. The role of lubricant additives in minimizing wear and extending the life of equipment is examined in detail. Whether you’re a professional in the field of mechanical engineering, a student of tribology, or simply someone fascinated by the science of wear and lubrication, this video offers a comprehensive yet accessible exploration of abrasive cutting wear. Join us in uncovering the intricacies of these wear mechanisms and their significant impact on equipment performance and maintenance. Remember to like, share, and subscribe for more content on oil analysis and lubrication topics, presented in an engaging, informative style. Your views and comments are invaluable in shaping our future content.

How Abrasive and cutting wear occur

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YouTube Video UExKZFR0SEY5U3h5aGgtWEk0SE11MmxpcEFIOTlzT2xhdC41MjE1MkI0OTQ2QzJGNzNG

When Machines say Ouch! Abrasive & Cutting wear

Oil Analysis 2024-02-05 9:00 am

Where is that silicon in my oil coming from? In our latest educational video, we explore the intriguing topic of silicon presence in oil, a subject of paramount importance in the realms of oil analysis and machinery maintenance. This video is tailored for professionals and enthusiasts keen on understanding the intricate details of lubricant contamination and wear analysis. The video begins by identifying the various sources of silicon in oil. We discuss how silicon often enters the lubrication system through external contaminants such as dirt or dust, where silicon is present as silicates. These silicates, often combined with aluminium, are a common component of dirt and can be indicative of abrasive wear in machinery. Another crucial source of silicon we examine is its use in oil as an anti-foam additive. Silicon-based anti-foam agents are commonly added to lubricants to reduce foam formation, which can impair lubrication and lead to operational issues. However, an excessive concentration of silicon from these additives can be misleading during oil analysis. Furthermore, we delve into the confusion between silicon and silicone. While silicon is a naturally occurring element often found in sand, silicone is a synthetic polymer used in various applications, including lubricants. Understanding this distinction is crucial in interpreting oil analysis results. We also cover the importance of monitoring the levels of silicon and aluminium in oil. High concentrations can indicate severe wear or contamination, leading to potential damage to machinery. The video provides insights into how regular oil analysis and monitoring can prevent such issues, ensuring the longevity and efficiency of your equipment. Join us in this comprehensive guide to understand the sources and implications of silicon in your oil. This video is an essential watch for anyone involved in oil analysis, lubrication management, and equipment maintenance. For more detailed information and expert advice, visit us at https://learnoilanalysis.com. #OilAnalysis #SiliconContamination #EngineOil #LubricationScience #MachineryMaintenance

Dive into the intricate world of oil analysis with our focused exploration on silicon sources in engine oils. Understand the reasons behind oil contamination and uncover the common culprits, from everyday dirt and sand to antifoam silicone additives. This insightful video will guide you through the process of identifying and understanding various sources of silicon in lubricating oils. Learn how these elements can impact the performance and longevity of your engine. Ideal for both industry professionals and enthusiasts, our analysis offers practical knowledge for effective machinery maintenance. Discover the significance of silicon in oil analysis and gain the expertise to maintain optimal engine health. For more detailed information and expert advice, visit us at https://learnoilanalysis.com. #OilAnalysis #SiliconContamination #EngineOil #LubricationScience #MachineryMaintenance

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YouTube Video UExKZFR0SEY5U3h5aGgtWEk0SE11MmxpcEFIOTlzT2xhdC4xMkVGQjNCMUM1N0RFNEUx

Silicon in Oil: The Invisible Threat to Your Machinery.

Oil Analysis 2023-12-05 7:00 am

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Maintenance Stratagies

Want to understand your reactive from your proactive? This is the right video list for you.

Maintenance Stategies
YouTube Video UExKZFR0SEY5U3h5aVhDN1gyNDV3YVVXMnNqTTdpNXNxRy41NkI0NEY2RDEwNTU3Q0M2 In this comprehensive video, we explore the critical role of oil analysis in shifting maintenance strategies from reactive and scheduled to preventative and proactive, focusing on wear metals, condition monitoring, and contaminant detection. This presentation is ideal for maintenance managers, reliability engineers, and anyone keen to understand the financial and operational benefits of a proactive maintenance regime. We begin by defining the four maintenance strategies: reactive, scheduled, preventative, and proactive. Reactive maintenance occurs after a failure, while scheduled maintenance is based on time or usage intervals. Preventative maintenance involves regular checks to prevent failures, and proactive maintenance seeks to understand and address the root causes of equipment deterioration. The video then highlights how oil analysis plays a key role in both preventative and proactive maintenance. In the context of preventative maintenance, oil analysis is used to detect wear metals. This helps in identifying and addressing component wear before it leads to equipment failure. By monitoring the levels and types of wear metals, maintenance teams can intervene early, preventing costly downtime and repairs. Shifting to proactive maintenance, we discuss how oil analysis goes beyond detecting immediate problems to understanding machine condition and identifying contaminants. This includes analysing oil for contaminants like water, dust, or incorrect oil, which can lead to premature wear or failure. Proactive oil analysis allows for the correction of root causes, such as sealing issues or filtration problems, before they escalate. A significant factor to know is the cost benefits of proactive versus reactive maintenance. For instance studies time and again show proactive maintenance can offer a return on investment of 10 to 1 compared to reactive maintenance. This is due to reductions in unplanned downtime, decreased repair costs, extended equipment life, and improved efficiency. Join us in this enlightening session to understand how oil analysis can transform your maintenance approach, yielding substantial cost savings and operational efficiencies. Whether you're just starting with oil analysis or looking to optimize your current program, this video is an invaluable resource in your journey towards maintenance excellence. Learn more about this and other topics on the channel including Oil condition monitoring, oil analysis, predictive maintenance, real time oil condition monitoring, preventative maintenance, Preventative maintenance, reactive maintenance #oil analysis #maintenance #predictive maintenance
You think you know maintenance? - Reactive, Scheduled, Preventative & Proactive
2023-12-29 12:30 am
In this comprehensive video, we explore the critical role of oil analysis in shifting maintenance strategies from reactive and scheduled to preventative and proactive, focusing on wear metals, condition monitoring, and contaminant detection. This presentation is ideal for maintenance managers, reliability engineers, and anyone keen to understand the financial and operational benefits of a proactive maintenance regime. We begin by defining the four maintenance strategies: reactive, scheduled, preventative, and proactive. Reactive maintenance occurs after a failure, while scheduled maintenance is based on time or usage intervals. Preventative maintenance involves regular checks to prevent failures, and proactive maintenance seeks to understand and address the root causes of equipment deterioration. The video then highlights how oil analysis plays a key role in both preventative and proactive maintenance. In the context of preventative maintenance, oil analysis is used to detect wear metals. This helps in identifying and addressing component wear before it leads to equipment failure. By monitoring the levels and types of wear metals, maintenance teams can intervene early, preventing costly downtime and repairs. Shifting to proactive maintenance, we discuss how oil analysis goes beyond detecting immediate problems to understanding machine condition and identifying contaminants. This includes analysing oil for contaminants like water, dust, or incorrect oil, which can lead to premature wear or failure. Proactive oil analysis allows for the correction of root causes, such as sealing issues or filtration problems, before they escalate. A significant factor to know is the cost benefits of proactive versus reactive maintenance. For instance studies time and again show proactive maintenance can offer a return on investment of 10 to 1 compared to reactive maintenance. This is due to reductions in unplanned downtime, decreased repair costs, extended equipment life, and improved efficiency. Join us in this enlightening session to understand how oil analysis can transform your maintenance approach, yielding substantial cost savings and operational efficiencies. Whether you're just starting with oil analysis or looking to optimize your current program, this video is an invaluable resource in your journey towards maintenance excellence. Learn more about this and other topics on the channel including Oil condition monitoring, oil analysis, predictive maintenance, real time oil condition monitoring, preventative maintenance, Preventative maintenance, reactive maintenance #oil analysis #maintenance #predictive maintenance

🔧 Dive into the world of maintenance with our comprehensive guide on the four fundamental maintenance strategies! In this enlightening video, we break down each strategy – Preventive, Predictive, Corrective, and Reliability-Centered Maintenance – to help you understand how they can revolutionize your operations. Whether you’re a seasoned professional or new to the field, this video is packed with valuable insights and practical tips.

⚙️ Discover how Preventive Maintenance can prevent unexpected failures, how Predictive Maintenance uses data to foresee problems, the immediate solutions offered by Corrective Maintenance, and the strategic approach of Reliability-Centered Maintenance.

🌟 Don’t forget to Like, Share, and Subscribe for more industry insights!

✨ Stay ahead in the maintenance game with our expert advice and transform your approach today!

Learn more about this and other topics on the channel including Oil condition monitoring, oil analysis, predictive maintenance, real time oil condition monitoring, preventative maintenance, Preventative maintenance, reactive maintenance #oil analysis #maintenance #predictive maintenance

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YouTube Video UExKZFR0SEY5U3h5aVhDN1gyNDV3YVVXMnNqTTdpNXNxRy41NkI0NEY2RDEwNTU3Q0M2

You think you know maintenance? - Reactive, Scheduled, Preventative & Proactive

Oil Analysis 2023-12-29 12:30 am

Explainer of condition based maintenance

Explainer of condition based maintenance

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YouTube Video UExKZFR0SEY5U3h5aVhDN1gyNDV3YVVXMnNqTTdpNXNxRy4yODlGNEE0NkRGMEEzMEQy

Condition Based Maintenance

Oil Analysis 2024-08-20 2:00 am

Welcome to our comprehensive guide where we explore the "6 Rights of Lubricant" - a crucial framework for ensuring the longevity and efficiency of your machinery. In this video, we delve deep into each right, providing you with the knowledge and tools to optimize your lubrication practices. 🔍 **What You'll Learn:** 1. **Right Type:** Understand how to select the ideal lubricant type for different machinery. 2. **Right Amount:** Learn the correct lubrication quantities to prevent over or under-lubrication. 3. **Right Place:** Discover the key lubrication points and techniques for effective application. 4. **Right Time:** Timing is everything. Know when to lubricate to maintain optimal machine health. 5. **Right lab Analysis:** Spot the signs of lubricant degradation and contamination. 6. **Right Quality:** select the best lubricant for your machinery 🔥 **Why It Matters:** - Reduce downtime and extend equipment life. - Improve machine efficiency and performance. - Prevent costly repairs and replacements. 💡 **Stay Connected:** - Subscribe for more insightful content on machine maintenance. - Hit the bell icon to stay updated on our latest videos. - Share your thoughts and experiences in the comments below. 📚 **Further Reading:** - Visit our blog [https://learnoilanalysis.com] for in-depth articles on lubrication best practices. 👷 **About Us:** We are industry experts committed to sharing knowledge and best practices in the field of machinery maintenance and lubrication. With years of experience and a passion for excellence, we bring you the most reliable and practical information. Thank you for watching! Don't forget to like, share, and subscribe for more expert insights on machinery maintenance. **#LubricationExcellence #MachineryMaintenance #IndustrialBestPractices**

Welcome to our comprehensive guide where we explore the "6 Rights of Lubricant" - a crucial framework for ensuring the longevity and efficiency of your machinery. In this video, we delve deep into each right, providing you with the knowledge and tools to optimize your lubrication practices.

🔍 **What You'll Learn:**
1. **Right Type:** Understand how to select the ideal lubricant type for different machinery.
2. **Right Amount:** Learn the correct lubrication quantities to prevent over or under-lubrication.
3. **Right Place:** Discover the key lubrication points and techniques for effective application.
4. **Right Time:** Timing is everything. Know when to lubricate to maintain optimal machine health.
5. **Right lab Analysis:** Spot the signs of lubricant degradation and contamination.
6. **Right Quality:** select the best lubricant for your machinery

🔥 **Why It Matters:**
- Reduce downtime and extend equipment life.
- Improve machine efficiency and performance.
- Prevent costly repairs and replacements.

💡 **Stay Connected:**
- Subscribe for more insightful content on machine maintenance.
- Hit the bell icon to stay updated on our latest videos.
- Share your thoughts and experiences in the comments below.

📚 **Further Reading:**
- Visit our blog [https://learnoilanalysis.com] for in-depth articles on lubrication best practices.

👷 **About Us:**
We are industry experts committed to sharing knowledge and best practices in the field of machinery maintenance and lubrication. With years of experience and a passion for excellence, we bring you the most reliable and practical information.

Thank you for watching! Don't forget to like, share, and subscribe for more expert insights on machinery maintenance.

**#LubricationExcellence #MachineryMaintenance #IndustrialBestPractices**

6 0

YouTube Video UExKZFR0SEY5U3h5aVhDN1gyNDV3YVVXMnNqTTdpNXNxRy41MjE1MkI0OTQ2QzJGNzNG

6 rights of lubricant

Oil Analysis 2024-03-24 4:00 pm

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Most Recent Videos

Here are the most recent videos we have produced. Want to see all the videos we produce (this is regularly updated), you can revisit them here or subscribe to our YouTube channel too. 

Most Recent Videos
The ability of a lubricant to resist oxidation and prevent rusting of components is so fundamental that it is the standard most basic of additive packages in every lubricant. Its called an R&O additive package, and to be honest, at least for the rusting side is usually bullet proof. However, when it goes wrong it can go really wrong. As can be seen with this specimen that with just 4 hours at operating conditions with water present completely rusted. Thankfully, we told the customer with an emergency call of the situation so they can take action on these findings.

The ability of a lubricant to resist oxidation and prevent rusting of components is so fundamental that it is the standard most basic of additive packages in every lubricant. Its called an R&O additive package, and to be honest, at least for the rusting side is usually bullet proof. However, when it goes wrong it can go really wrong. As can be seen with this specimen that with just 4 hours at operating conditions with water present completely rusted. Thankfully, we told the customer with an emergency call of the situation so they can take action on these findings.

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LkhEZ2x0eFNQZ3Rn

Rust Testing IP135A - Why it matters?

Oil Analysis 2025-01-31 6:15 pm

After feedback the music was too loud. Please find without the music.

After feedback the music was too loud. Please find without the music.

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LmZPRUVCaGtnczEw

Sodium reloaded (without the music)

Oil Analysis 2025-01-28 7:37 pm

So today we're diving into this fascinating debate about condition monitoring technologies. You know how everyone thinks their specialty is the best? It's like that classic rivalry between different sports fans. Oh absolutely! It's funny because I've worked with so many experts who swear their method is the holy grail of machine monitoring. Vibration analysts, thermography specialists, acoustic monitoring pros - they all claim the crown. Let's break this down though. What's really interesting is that oil analysis can actually detect problems like 10 to 15 times earlier than these other methods. That's pretty impressive, right? You know, I've seen that happen in a manufacturing plant. They had this massive gear system, and the vibration analysis caught a crack that would have been catastrophic if left unchecked. That's fascinating! Speaking of real-world examples, I remember this case where oil analysis detected metal particles months before any other monitoring method showed problems. Saved the company a fortune in downtime. Mhm, that brings up a good point about cost savings. What's your take on the investment aspect of these different technologies? Well, each has its own cost structure. Oil analysis might require regular sampling and lab work, but it's relatively inexpensive compared to some of the specialized equipment needed for vibration or thermographic analysis. That's such a good point! I think what we're really discovering here is that each method has its sweet spot. Take vibration analysis - it's amazing for rotating machinery and picking up imbalances. And don't forget about the training required. You need specialized knowledge to interpret these results correctly, regardless of which technology you're using. Absolutely right. It's not just about having the tools, it's about knowing how to use them effectively. Like how thermography can show you a hot bearing, but you need experience to know if it's actually problematic. Exactly! I once saw an acoustic analysis completely thrown off by nearby construction work. They had to come back at night to get accurate readings. The really fascinating part is how they all work together. It's like having different specialists in a hospital - you wouldn't want just one type of doctor for everything. Speaking of working together, I've seen some really interesting hybrid approaches lately. Some companies are using AI to combine data from different monitoring methods. Oh, that's interesting! How does that work exactly? Well, imagine having all these different data streams - oil analysis results, vibration readings, temperature data - and the AI helps spot patterns that humans might miss. That's pretty cutting-edge stuff. But let's not forget the basics - oil analysis is particularly great for engines. I mean, it's pretty much the only tool people use for engine monitoring because it can identify exactly which components are wearing. And it can tell you so much about contamination too. Like water content, fuel dilution, coolant leaks - things that other methods just can't detect. That's true. But what I find really interesting is how about 80% of hydraulic system failures are actually contamination-related. In those cases, identifying the contaminant becomes more important than pinpointing wear locations. It's amazing how much you can learn just from a small oil sample, isn't it? Like reading the machine's blood work. Yeah, it's like being a detective. Sometimes you need multiple tools to solve the case. Like using oil analysis to detect a problem early, then following up with vibration analysis to pinpoint exactly where it's happening. And let's talk about preventive maintenance too. These technologies aren't just for finding problems - they're crucial for preventing them in the first place. You know what's really cool? When you combine these technologies, you get this amazing comprehensive view of machine health. It's like having both an X-ray and an MRI - they show different things but work better together. That's a perfect analogy! And each technology has really evolved over the years. The equipment we use now is so much more sophisticated than what we had even a decade ago. Absolutely! And while we're talking about all this, I should mention that if anyone wants to learn more about oil analysis specifically, they should check out Learn Oil Analysis dot com. They've got some really in-depth resources there. Makes sense. It's clear there's no single "best" technology - it's all about using the right tool for the right job. Or better yet, using them together for the best results. Yeah, exactly. Whether it's oil analysis catching problems super early or vibration analysis pinpointing exact locations, they all have their place in modern maintenance. And that's really the key takeaway here - it's not about which technology is better, it's about understanding when and how to use each one effectively.

So today we're diving into this fascinating debate about condition monitoring technologies. You know how everyone thinks their specialty is the best? It's like that classic rivalry between different sports fans.

Oh absolutely! It's funny because I've worked with so many experts who swear their method is the holy grail of machine monitoring. Vibration analysts, thermography specialists, acoustic monitoring pros - they all claim the crown.

Let's break this down though. What's really interesting is that oil analysis can actually detect problems like 10 to 15 times earlier than these other methods. That's pretty impressive, right?

You know, I've seen that happen in a manufacturing plant. They had this massive gear system, and the vibration analysis caught a crack that would have been catastrophic if left unchecked.

That's fascinating! Speaking of real-world examples, I remember this case where oil analysis detected metal particles months before any other monitoring method showed problems. Saved the company a fortune in downtime.

Mhm, that brings up a good point about cost savings. What's your take on the investment aspect of these different technologies?

Well, each has its own cost structure. Oil analysis might require regular sampling and lab work, but it's relatively inexpensive compared to some of the specialized equipment needed for vibration or thermographic analysis.

That's such a good point! I think what we're really discovering here is that each method has its sweet spot. Take vibration analysis - it's amazing for rotating machinery and picking up imbalances.

And don't forget about the training required. You need specialized knowledge to interpret these results correctly, regardless of which technology you're using.

Absolutely right. It's not just about having the tools, it's about knowing how to use them effectively. Like how thermography can show you a hot bearing, but you need experience to know if it's actually problematic.


Exactly! I once saw an acoustic analysis completely thrown off by nearby construction work. They had to come back at night to get accurate readings.

The really fascinating part is how they all work together. It's like having different specialists in a hospital - you wouldn't want just one type of doctor for everything.

Speaking of working together, I've seen some really interesting hybrid approaches lately. Some companies are using AI to combine data from different monitoring methods.

Oh, that's interesting! How does that work exactly?

Well, imagine having all these different data streams - oil analysis results, vibration readings, temperature data - and the AI helps spot patterns that humans might miss.

That's pretty cutting-edge stuff. But let's not forget the basics - oil analysis is particularly great for engines. I mean, it's pretty much the only tool people use for engine monitoring because it can identify exactly which components are wearing.

And it can tell you so much about contamination too. Like water content, fuel dilution, coolant leaks - things that other methods just can't detect.

That's true. But what I find really interesting is how about 80% of hydraulic system failures are actually contamination-related. In those cases, identifying the contaminant becomes more important than pinpointing wear locations.

It's amazing how much you can learn just from a small oil sample, isn't it? Like reading the machine's blood work.

Yeah, it's like being a detective. Sometimes you need multiple tools to solve the case. Like using oil analysis to detect a problem early, then following up with vibration analysis to pinpoint exactly where it's happening.

And let's talk about preventive maintenance too. These technologies aren't just for finding problems - they're crucial for preventing them in the first place.

You know what's really cool? When you combine these technologies, you get this amazing comprehensive view of machine health. It's like having both an X-ray and an MRI - they show different things but work better together.

That's a perfect analogy! And each technology has really evolved over the years. The equipment we use now is so much more sophisticated than what we had even a decade ago.

Absolutely! And while we're talking about all this, I should mention that if anyone wants to learn more about oil analysis specifically, they should check out Learn Oil Analysis dot com. They've got some really in-depth resources there.

Makes sense. It's clear there's no single "best" technology - it's all about using the right tool for the right job. Or better yet, using them together for the best results.

Yeah, exactly. Whether it's oil analysis catching problems super early or vibration analysis pinpointing exact locations, they all have their place in modern maintenance.

And that's really the key takeaway here - it's not about which technology is better, it's about understanding when and how to use each one effectively.

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LjdlTmV3OTVXb0xr

Oil analysis vs thermography vs vibration vs acoustics

Oil Analysis 2025-01-09 10:00 am

Hey, it's fascinating how one tiny molecule can make such a huge difference in protecting our engines and machinery. Today let's talk about ZDDP - probably the most important oil additive ever created. You know what's really cool about ZDDP? It actually does four different jobs at once. That's pretty impressive for just one additive. Hmm, yeah exactly. Think of ZDDP like a microscopic superhero team. It prevents wear between metal parts, stops metal from reacting with the oil, provides a cushion for engine valves, and fights oil oxidation all at the same time. And you know what's interesting? Its full name is actually Zinc Dialkyl Dithiophosphate - no wonder everyone just calls it ZDDP! Oh yeah, that's quite a mouthful. But each part of that name actually tells us something about how it works. The zinc part is super important because it forms the backbone of the molecule. And then you've got these sulfur and phosphorus components that do most of the heavy lifting when it comes to protecting metal surfaces. That's right. You know, I think a lot of people don't realize just how critical this additive is. Without ZDDP, modern engines would wear out so much faster. Mhm, and when engine parts start getting really hot and the oil film gets super thin, ZDDP jumps into action. It's like having a repair crew on standby 24/7. Can you explain how that repair process actually works? I find the chemistry fascinating. Well, it's pretty clever actually. When ZDDP breaks down, it forms this protective layer called a tribofilm. Think of it like painting the metal surface with an ultra-tough protective coating. And there are actually two main parts to this protective layer, right? Exactly! First, you get this super-hard sulfide layer that forms on the metal - it's like laying down concrete. Then on top of that, you get this glassy phosphate coating that's like painting over the concrete to seal everything in. That's such a great way to explain it. And this protective layer is incredibly thin, isn't it? Mhm, we're talking about 100 nanometers thick - about 1000 times thinner than a human hair! But even at that scale, it's enough to dramatically extend the life of engine components. Though ZDDP isn't perfect - it can cause some issues too, especially in modern engines. Right, and that's mainly because of the ash deposits it forms when it burns. These can be particularly problematic for vehicles with catalytic converters and particulate filters. Which is why modern oils often have to use less ZDDP than we used to, especially in passenger car engines. That must create quite a challenge for oil formulators, doesn't it? Balancing protection versus emissions control? Absolutely. Too little ZDDP and you don't get enough protection, too much and you risk damaging expensive emission control systems. It's quite a delicate balance. And that's where regular oil analysis becomes so important - it helps you make sure you're getting the protection you need. Hmm, good point. Oil analysis can tell you if your ZDDP is still working effectively or if it's been depleted. You know what's interesting? Some newer oils are using different types of ZDDP molecules that are more thermally stable. That's right - they're designed to break down more slowly and provide protection for longer periods. Speaking of which, temperature really affects how ZDDP works, doesn't it? Oh definitely! At normal temperatures, ZDDP just kind of hangs out in the oil, but when things get hot - that's when it springs into action. And it's not just temperature - pressure plays a huge role too. When those metal surfaces start getting close together under high pressure, that's another trigger for ZDDP to activate. You know, it's pretty amazing how this one molecule can sense when it's needed and respond accordingly. Absolutely! If anyone wants to learn more about oil analysis and how it can help protect their equipment, they should check out learnoilanalysis.com. There's a ton of great free resources there. That's right - knowledge really is power when it comes to maintaining equipment. The more you understand what's happening inside your machinery, the better decisions you can make. And think about it - all this protection comes from just one molecule! It really shows how far lubricant technology has come and why proper oil analysis is so important. Couldn't agree more. Understanding your oil is like having x-ray vision into your equipment's health. And that's what makes oil analysis such a powerful preventive maintenance tool.

Hey, it's fascinating how one tiny molecule can make such a huge difference in protecting our engines and machinery. Today let's talk about ZDDP - probably the most important oil additive ever created.

You know what's really cool about ZDDP? It actually does four different jobs at once. That's pretty impressive for just one additive.

Hmm, yeah exactly. Think of ZDDP like a microscopic superhero team. It prevents wear between metal parts, stops metal from reacting with the oil, provides a cushion for engine valves, and fights oil oxidation all at the same time.

And you know what's interesting? Its full name is actually Zinc Dialkyl Dithiophosphate - no wonder everyone just calls it ZDDP!

Oh yeah, that's quite a mouthful. But each part of that name actually tells us something about how it works. The zinc part is super important because it forms the backbone of the molecule.

And then you've got these sulfur and phosphorus components that do most of the heavy lifting when it comes to protecting metal surfaces.

That's right. You know, I think a lot of people don't realize just how critical this additive is. Without ZDDP, modern engines would wear out so much faster.

Mhm, and when engine parts start getting really hot and the oil film gets super thin, ZDDP jumps into action. It's like having a repair crew on standby 24/7.

Can you explain how that repair process actually works? I find the chemistry fascinating.

Well, it's pretty clever actually. When ZDDP breaks down, it forms this protective layer called a tribofilm. Think of it like painting the metal surface with an ultra-tough protective coating.

And there are actually two main parts to this protective layer, right?

Exactly! First, you get this super-hard sulfide layer that forms on the metal - it's like laying down concrete. Then on top of that, you get this glassy phosphate coating that's like painting over the concrete to seal everything in.

That's such a great way to explain it. And this protective layer is incredibly thin, isn't it?

Mhm, we're talking about 100 nanometers thick - about 1000 times thinner than a human hair! But even at that scale, it's enough to dramatically extend the life of engine components.

Though ZDDP isn't perfect - it can cause some issues too, especially in modern engines.

Right, and that's mainly because of the ash deposits it forms when it burns. These can be particularly problematic for vehicles with catalytic converters and particulate filters.

Which is why modern oils often have to use less ZDDP than we used to, especially in passenger car engines.

That must create quite a challenge for oil formulators, doesn't it? Balancing protection versus emissions control?

Absolutely. Too little ZDDP and you don't get enough protection, too much and you risk damaging expensive emission control systems. It's quite a delicate balance.

And that's where regular oil analysis becomes so important - it helps you make sure you're getting the protection you need.

Hmm, good point. Oil analysis can tell you if your ZDDP is still working effectively or if it's been depleted.

You know what's interesting? Some newer oils are using different types of ZDDP molecules that are more thermally stable.

That's right - they're designed to break down more slowly and provide protection for longer periods.

Speaking of which, temperature really affects how ZDDP works, doesn't it?

Oh definitely! At normal temperatures, ZDDP just kind of hangs out in the oil, but when things get hot - that's when it springs into action.

And it's not just temperature - pressure plays a huge role too. When those metal surfaces start getting close together under high pressure, that's another trigger for ZDDP to activate.

You know, it's pretty amazing how this one molecule can sense when it's needed and respond accordingly.

Absolutely! If anyone wants to learn more about oil analysis and how it can help protect their equipment, they should check out learnoilanalysis.com. There's a ton of great free resources there.

That's right - knowledge really is power when it comes to maintaining equipment. The more you understand what's happening inside your machinery, the better decisions you can make.

And think about it - all this protection comes from just one molecule! It really shows how far lubricant technology has come and why proper oil analysis is so important.

Couldn't agree more. Understanding your oil is like having x-ray vision into your equipment's health. And that's what makes oil analysis such a powerful preventive maintenance tool.

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LlpFV1JOY1hLdFZ3

Think you don't need oil analysis?

Oil Analysis 2024-12-17 11:08 pm

Dive into the world of engine oils with our latest video, where we explore the significance of the initial pH level in maintaining engine health and efficiency. This comprehensive analysis begins by defining what pH level means in the context of engine oils and why it is a critical parameter for evaluating oil quality. We discuss how the pH value can influence the corrosion of metal parts and affect the overall lubrication performance. The video also covers how different additives impact the pH and how this can alter the protective qualities of the oil over time. Join us as we break down these complex interactions in simple terms to provide you with the knowledge you need to understand your vehicle’s engine oil better. Whether you’re a car enthusiast or a professional in the automotive industry, this video will equip you with crucial insights into the chemical foundations of engine lubrication.

Dive into the world of engine oils with our latest video, where we explore the significance of the initial pH level in maintaining engine health and efficiency. This comprehensive analysis begins by defining what pH level means in the context of engine oils and why it is a critical parameter for evaluating oil quality. We discuss how the pH value can influence the corrosion of metal parts and affect the overall lubrication performance. The video also covers how different additives impact the pH and how this can alter the protective qualities of the oil over time. Join us as we break down these complex interactions in simple terms to provide you with the knowledge you need to understand your vehicle’s engine oil better. Whether you’re a car enthusiast or a professional in the automotive industry, this video will equip you with crucial insights into the chemical foundations of engine lubrication.

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LnpUMXlTbWpJTm9r

Initial pH (IpH) explained in 2 minutes

Oil Analysis 2024-12-13 1:00 am

In this informative video, we delve into the critical process of Failure Modes and Effects Analysis (FMEA) within the context of lubrication systems. Designed as an accompanying article, this presentation aims to provide viewers with a thorough understanding of FMEA, a proactive tool used to anticipate and prevent potential failures in mechanical systems. **Introduction to FMEA** The video begins with an introduction to the concept of FMEA, explaining its importance in industrial and mechanical contexts. We discuss how FMEA serves as a systematic approach for identifying potential failure modes, their causes, and their effects on system performance, particularly focusing on lubrication systems. **FMEA Process and Steps** Next, we break down the FMEA process into clear, manageable steps. This includes the identification of potential failure modes, assessment of their effects on the system, and determination of their causes. The video provides practical examples from the field of lubrication to illustrate each step, making the information accessible and relatable. **Application in Lubrication Systems** We then apply the FMEA methodology specifically to lubrication systems. This section explores various failure modes, such as lubricant contamination, inadequate lubrication, and component wear, and assesses their potential impacts. The video emphasizes the importance of understanding these failure modes to maintain the reliability and efficiency of machinery. **Risk Prioritization and Mitigation Strategies** An important part of the FMEA process is risk prioritization. The video discusses how to assess the severity, occurrence, and detectability of each failure mode and prioritize them accordingly. We also explore various mitigation strategies, including regular maintenance, monitoring systems, and using high-quality lubricants. **Benefits and Limitations of FMEA** Finally, the video provides a balanced view of FMEA, discussing its benefits in enhancing system reliability and preventing costly downtime, while also acknowledging its limitations. We emphasize that while FMEA is a powerful tool, it should be part of a broader maintenance and reliability strategy. Whether you are an engineer, maintenance professional, or a student of mechanical systems, this video offers a comprehensive guide to understanding and applying FMEA in lubrication systems. Join us to gain valuable insights into this essential process for ensuring the longevity and efficiency of machinery.

In this informative video, we delve into the critical process of Failure Modes and Effects Analysis (FMEA) within the context of lubrication systems. Designed as an accompanying article, this presentation aims to provide viewers with a thorough understanding of FMEA, a proactive tool used to anticipate and prevent potential failures in mechanical systems.

**Introduction to FMEA**
The video begins with an introduction to the concept of FMEA, explaining its importance in industrial and mechanical contexts. We discuss how FMEA serves as a systematic approach for identifying potential failure modes, their causes, and their effects on system performance, particularly focusing on lubrication systems.

**FMEA Process and Steps**
Next, we break down the FMEA process into clear, manageable steps. This includes the identification of potential failure modes, assessment of their effects on the system, and determination of their causes. The video provides practical examples from the field of lubrication to illustrate each step, making the information accessible and relatable.

**Application in Lubrication Systems**
We then apply the FMEA methodology specifically to lubrication systems. This section explores various failure modes, such as lubricant contamination, inadequate lubrication, and component wear, and assesses their potential impacts. The video emphasizes the importance of understanding these failure modes to maintain the reliability and efficiency of machinery.

**Risk Prioritization and Mitigation Strategies**
An important part of the FMEA process is risk prioritization. The video discusses how to assess the severity, occurrence, and detectability of each failure mode and prioritize them accordingly. We also explore various mitigation strategies, including regular maintenance, monitoring systems, and using high-quality lubricants.

**Benefits and Limitations of FMEA**
Finally, the video provides a balanced view of FMEA, discussing its benefits in enhancing system reliability and preventing costly downtime, while also acknowledging its limitations. We emphasize that while FMEA is a powerful tool, it should be part of a broader maintenance and reliability strategy.

Whether you are an engineer, maintenance professional, or a student of mechanical systems, this video offers a comprehensive guide to understanding and applying FMEA in lubrication systems. Join us to gain valuable insights into this essential process for ensuring the longevity and efficiency of machinery.

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LnJaMzNVT3I3Um5z

Failure Modes and Effects Analysis (FMEA)

Oil Analysis 2024-11-15 12:00 am

Oil analysis can be the single biggest change you can make to your business that reduces your carbon footprint whilst also reducing your costs and disruption to your business. Why are you not already doing this?

Oil analysis can be the single biggest change you can make to your business that reduces your carbon footprint whilst also reducing your costs and disruption to your business. Why are you not already doing this?

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LkppTVVWZTR5bFNF

Oil Analysis your secret weapon to a greener planet

Oil Analysis 2024-10-07 11:00 pm

After a few technical issues at triboslam with the audio in the presentation video we finally got to present our new product launch. Oil Analysis laboratories introducing wellness days for your oil samples, the vacation your samples need. However, because of the delay will my battery make it? Special thanks to elevenlabs for some of the audio support and triboslam team for having me on their conference.

After a few technical issues at triboslam with the audio in the presentation video we finally got to present our new product launch. Oil Analysis laboratories introducing wellness days for your oil samples, the vacation your samples need.

However, because of the delay will my battery make it?

Special thanks to elevenlabs for some of the audio support and triboslam team for having me on their conference.

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3Lko4VHlNMmtaV3Zr

Technical issues Triboslam 2024 (Will I make it to the end?)

Oil Analysis 2024-09-23 5:57 pm

Understanding Sodium in Lubricating Oils: Implications and Analysis In this video, we delve into the role and impact of sodium in lubricating oils. Sodium, an element occasionally found in lubricants, can significantly affect the performance and longevity of machinery. Our exploration covers the following key points: Sources of Sodium Contamination: Identifying how sodium can enter lubricating oils, whether through coolant leaks, environmental exposure, or additive packages. Effects on Lubrication Performance: Examining the potential negative impacts of sodium, including corrosion, deposit formation, and interference with the oil's protective properties. Preventive Measures and Best Practices: Providing actionable insights into preventing sodium contamination and maintaining optimal lubricant performance through regular monitoring and proactive maintenance. Join us for an in-depth understanding of how sodium in lubricating oils can influence machinery health and learn best practices for managing this common issue. Subscribe to our channel for more expert insights into oil analysis and lubrication topics.

Understanding Sodium in Lubricating Oils: Implications and Analysis

In this video, we delve into the role and impact of sodium in lubricating oils. Sodium, an element occasionally found in lubricants, can significantly affect the performance and longevity of machinery. Our exploration covers the following key points:

Sources of Sodium Contamination: Identifying how sodium can enter lubricating oils, whether through coolant leaks, environmental exposure, or additive packages.

Effects on Lubrication Performance: Examining the potential negative impacts of sodium, including corrosion, deposit formation, and interference with the oil's protective properties.


Preventive Measures and Best Practices: Providing actionable insights into preventing sodium contamination and maintaining optimal lubricant performance through regular monitoring and proactive maintenance.

Join us for an in-depth understanding of how sodium in lubricating oils can influence machinery health and learn best practices for managing this common issue.

Subscribe to our channel for more expert insights into oil analysis and lubrication topics.

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LnhkbW1ESkN3VkpZ

Sodium in your lube oil?

Oil Analysis 2024-08-29 11:02 pm

Explainer of condition based maintenance

Explainer of condition based maintenance

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LjAtUXhLZzFlV2Vz

Condition Based Maintenance

Oil Analysis 2024-08-20 2:00 am

but with endless possibilities. Find out more about oil analysis

but with endless possibilities. Find out more about oil analysis

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LnJTbUZFbEY4Q0Vr

I am just a bottle...

Oil Analysis 2024-07-24 6:35 am

If your machine could vote...

If your machine could vote...

YouTube Video VVUwT1d4WTF1NFA4d3QxRFpmekM2WWN3LmFQcDB5OUdxM2xZ

If your machine could vote...

Oil Analysis 2024-07-03 11:00 pm

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