Overview
What is oil & fuel analysis training?
At Chem-Tech® Laboratories, we understand that knowledge is the key to maximizing the value of your assets. That's why we offer comprehensive training programs in Oil & Fuel Analysis. Our courses are designed to empower individuals and organizations with the skills and expertise needed to make informed decisions and achieve optimal performance.
Programme guidance
What You'll Learn:
Fundamentals of Oil & Fuel Analysis: Gain a deep understanding of the essential principles and techniques used in the analysis of oils and fuels.
Advanced Analytical Methods: Explore advanced methods and technologies used for in-depth analysis, from spectroscopy to chromatography.
Quality Control and Assurance: Learn how to maintain the highest standards of quality and reliability in your analysis processes. Interpreting Results: Develop the ability to interpret analytical data and make data-driven decisions.
Troubleshooting and Maintenance: Acquire the skills needed to identify issues, troubleshoot problems, and ensure the optimal performance of equipment and machinery.
Programme guidance
Who Should Attend:
Our training programs are suitable for a wide range of professionals and organizations, including:
- Engineers and Technicians: Enhance your analytical skills to improve maintenance and performance.
- Laboratory Professionals: Stay updated with the latest analytical methods and quality control techniques.
- Industry Specialists: Gain insights into industry-specific challenges and solutions.
- Maintenance and Reliability Teams: Improve the longevity and efficiency of your equipment.
Programme guidance
Why Choose Us:
Industry Expertise: The assigned instructors and course scope are confirmed before booking.
Cutting-Edge Facilities: The venue, equipment and practical activities are confirmed for the selected course.
Practical Learning: Our programs combine theoretical knowledge with hands-on practical experience.
Certification: Ask Chem-Tech to confirm whether completion documentation applies to the selected course.
Empower yourself or your team with the expertise to drive efficiency, quality, and reliability in oil and fuel analysis. Join our training programs and unlock the power of informed decision-making.
Published laboratory capability
Tests and test methods
The methods below are matched to Chem-Tech's controlled technical test lists and published laboratory capability. The final scope is confirmed for the sample, specification and current laboratory capability.
| Test / parameter | Published test method | Technical purpose | Interpretation / high-low context |
|---|---|---|---|
| Appearance | CTP T 112 | Records the visible condition and colour of the submitted sample. | Unexpected haze, sediment, separation or colour change may indicate contamination, degradation or sample-handling effects; compare with the product reference. |
| Density / Specific Gravity | ASTM D1298 / ASTM D4052 | Measures mass per unit volume and supports product identification or specification review. | A result above or below the applicable range may indicate product mixing, contamination, composition change or an incorrect grade. |
| Kinematic Viscosity | ASTM D445 / ASTM D7042 | Characterises resistance to flow and, where applicable, viscosity response to temperature. | Higher viscosity may accompany oxidation, soot or heavier-product contamination; lower viscosity may accompany dilution, shear or lighter-product mixing. |
| Viscosity Index | ASTM D2270 | Characterises resistance to flow and, where applicable, viscosity response to temperature. | Higher viscosity may accompany oxidation, soot or heavier-product contamination; lower viscosity may accompany dilution, shear or lighter-product mixing. |
| Water Content | ASTM E203 / ASTM D1744 / ASTM D6304 | Quantifies water or moisture in the submitted material. | A higher result may indicate ingress, condensation, storage or handling contamination; significance depends on the product and applicable limit. |
| Flash & Fire Point (COC) | ASTM D92 | Determines the temperature at which vapour ignites under the selected procedure. | A lower result may indicate volatile contamination or product change; a higher result is interpreted against the identified grade and method. |
| Total Base Number | ASTM D4739 / ASTM D2896 | Measures reserve alkalinity in applicable lubricants. | A lower result relative to fresh oil or trend data may indicate reserve depletion; an unexpectedly high value may indicate a different formulation or mixing. |
| Total Acid Number | ASTM D664 / ASTM D974 | Measures acidic constituents under the selected method. | An increase from the reference may support oxidation or acidic-contamination review; a single result must be compared with product and service history. |
| Elemental Analysis by ICP | ASTM D5185 / ASTM D4951 | Reports selected wear, contaminant, additive or composition-related elements. | Higher or lower values require comparison with formulation, metallurgy, process inputs and trend history; one result alone does not establish the source. |
| Particle Count / Cleanliness | NAS 1638 / ISO 4406 | Assesses particulate, sediment or insoluble contamination in the sample. | A higher result indicates more suspended or insoluble material; acceptability depends on the equipment, product specification and sampling point. |
| Foaming Tendency & Stability | ASTM D892 | Assesses foam tendency and, where applicable, foam stability. | Higher foam volume or persistence may indicate poorer air-release behaviour, contamination or additive-related change under the test conditions. |
| Water Separability | ASTM D1401 | Assesses separation behaviour between oil and water. | Longer separation time or persistent emulsion may indicate reduced water-separation performance; compare with the applicable product requirement. |
| Soot Content | ASTM D7686 | Measures combustion-derived soot in used engine oil. | A higher result indicates greater soot loading and should be reviewed with engine condition, oil hours and viscosity change. |
| Fuel Dilution | ASTM D7593 | Assesses fuel contamination in used engine oil. | A higher result indicates more fuel in the lubricant and may be associated with viscosity reduction; operating information is needed for diagnosis. |
| PQ Index | ASTM D8184 | Measures or evaluates pq index under the published method. | A higher or lower result is interpreted against the applicable specification, sample type and available reference data; direction alone does not establish conformity. |
| FTIR Condition Monitoring | ASTM E2412 | Assesses oxidation stability or condition-related spectral indicators. | Greater oxidation-related change may indicate degradation; stability results and spectral trends must be interpreted using the applicable method and reference. |
| Pour Point | ASTM D97 | Assesses low-temperature flow or operability characteristics. | A higher temperature generally indicates poorer low-temperature behaviour; compare with the climatic and product requirement. |
| Sulphur Content | ASTM D4294 | Quantifies sulphur in the submitted fuel or material. | A higher result may affect specification compliance, emissions-related requirements or process suitability; compare with the identified grade. |
| Ash Content | ASTM D482 | Measures non-combustible residue remaining after controlled combustion. | A higher result indicates more inorganic residue and may affect fuel quality, deposits or specification compliance. |
| Conradson Carbon Residue | ASTM D189 | Assesses the tendency to leave carbonaceous residue under the selected procedure. | A higher result indicates greater residue-forming tendency; relevance depends on the fuel grade and application. |
| Insolubles | ASTM D893 | Assesses particulate, sediment or insoluble contamination in the sample. | A higher result indicates more suspended or insoluble material; acceptability depends on the equipment, product specification and sampling point. |
| Saponification Value | ASTM D94 | Measures or evaluates saponification value under the published method. | A higher or lower result is interpreted against the applicable specification, sample type and available reference data; direction alone does not establish conformity. |
| Analytical Ferrography | ASTM D7690 | Measures or evaluates analytical ferrography under the published method. | A higher or lower result is interpreted against the applicable specification, sample type and available reference data; direction alone does not establish conformity. |
| Cooling Curve Analysis | ASTM D6200 | Measures or evaluates cooling curve analysis under the published method. | A higher or lower result is interpreted against the applicable specification, sample type and available reference data; direction alone does not establish conformity. |
| Distillation Recovery / Initial Boiling Point | ASTM D86 | Characterises volatility and recovery across the boiling range. | Higher or lower recovery temperatures may indicate composition change, contamination or a different product grade when compared with the applicable specification. |
Before dispatch
Sample-submission guidance
- Use a clean, secure and appropriately labelled container.
- Provide the sample identity, fluid grade and equipment or system details where applicable.
- Share operating hours, maintenance history, the suspected problem and required specification where available.
- Contact Chem-Tech before dispatch so the laboratory can confirm the sample quantity, container and selected testing scope.
Technical output
Reporting and interpretation
The report records results and methods for the agreed scope. Customer-supplied limits or specifications can be considered when provided before testing.
Results should be reviewed with equipment history, operating conditions and previous data; a laboratory result alone does not guarantee a root-cause diagnosis or remaining service life.
Read Basics of Oil AnalysisDiscuss your requirement
Need more information?
Share the lubricant type, equipment and testing objective with the Chem-Tech team.