The most useful test programme begins with the asset, fluid, failure mode and decision—not a generic list of laboratory parameters.
Choose an asset, understand its lubrication points and build a routine and triggered test panel.
Choose equipment →02Review types, formulation, purpose of testing, relevant methods and condition-monitoring evidence.
Choose a fluid →03Investigate high iron, copper, water, viscosity change and other signals without jumping to a diagnosis.
Interpret a result →04Match the sampling point, container, operating state, interval and evidence controls to the equipment.
Plan sampling →Connect lubricant type, equipment duty, sampling quality and laboratory evidence before deciding what maintenance action is justified.
Move between 45 product families, test methods, equipment context and maintenance response without losing the evidence trail.
Lubricant analysis connects fluid condition, contamination and wear evidence to the machine and its operating history.
Engine, hydraulic, gear, turbine, compressor, marine, aviation, process and specialty lubricant families.
25 detailed guidesOpen collection →
Fuel testing evaluates identity, cleanliness, storage condition, combustion suitability and operational risk.
Diesel, marine, bunker, aviation, gasoline, biodiesel and blended fuel guidance from delivery to use.
11 fuel familiesOpen collection →
Specialty-fluid programmes match the chemistry, service environment and failure consequence of each application.
Coolants, AdBlue, transformer liquids, fire-resistant fluids, heat-transfer fluids and process-service materials.
Combustion, wear, contamination and lubricant reserve
Cleanliness, water, viscosity and component-wear control
Ferrous debris, particle morphology, viscosity and contamination
Oxidation, varnish, water and air-release performance
Oxidation, deposits, contamination and lubricant life
Dielectric condition, moisture and dissolved-gas evidence
The Wiki maps published tests to relevant ASTM, ISO, IS/BIS, DIN, IEC, EN and IP/EI families. It explains purpose and significance without reproducing protected procedures or universal limits.
Use the Wiki to define the question and protect the evidence. Chem-Tech can help confirm sample requirements, select an appropriate panel and interpret results in context.
Particle size, shape, composition and rate of change help convert an abnormal result into a testable failure hypothesis.
Equipment programmes, failure modes, diagnostic pathways, industry applications and proportionate action.
10 equipment classesOpen collection →