How to Prevent Failures in the Railway Industry (A Guide to Laboratory Testing)

👉 Early detection of wear and tear on gearbox components and bearings – reducing the risk of serious breakdowns

👉 Rapid identification of severe mechanical wear – enabling an immediate service response

👉 Monitoring oil degradation and detecting contaminants – extending the service life of the oil and components

👉 Monitoring oil degradation – optimising the timing of oil changes

👉 Assurance of proper lubricating properties – smooth gearbox operation

👉 Checking that the oil meets the manufacturer’s specifications – reducing the risk of inadequate lubrication

👉 Elimination of one of the main causes of degradation – protection against corrosion and cavitation

👉 Monitoring of contamination levels – extending the service life of bearings and precision components

👉 Guaranteed performance at low temperatures – reliability in winter conditions

👉 Detection of oil dilution and degradation – improved operational safety

👉 Early detection of wear and tear on hydraulic system components – preventing pump and valve failures

👉 Quick identification of excessive wear on components – reducing the risk of system failure

👉 Detection of oil degradation and contaminants – maintaining stable hydraulic system performance

👉 Monitoring oil ageing processes – preventing corrosion and system degradation

👉 Ensuring the system operates correctly – maintaining the correct pressure and lubrication

👉 Verification of oil compliance with requirements – stable and safe system operation

👉 Protection of precision hydraulic components – extending the service life of valves and actuators

👉 Rapid identification of anomalies – an early warning of degradation or contamination

👉 Elimination of the risk of cavitation and corrosion – improved reliability of the hydraulic system

👉 Reduced risk of fuel system contamination – protection for injectors and filters

👉 Identifying the type of contamination – more effective resolution of the root causes

👉 Elimination of the risk of corrosion and fuel system failure – improved engine reliability

👉 Optimisation of the combustion process – improved efficiency and reduced fuel consumption

👉 Fuel quality control – detection of adulteration or non-compliance with standards

👉 Ensuring proper fuel atomisation – smooth engine running

👉 Checking fuel performance parameters – reducing the risk of injection problems

👉 Reliable starting in cold weather – no fuel flow issues in winter

👉 Detection of contaminants and dilution – improving operational safety

👉 Precise fuel quality control – reducing the risk of incomplete combustion

👉 Fuel aggressiveness assessment – protecting fuel system components from damage

👉 Protection of oil-impregnated paper insulation – slowing down the degradation process of the transformer

👉 Early detection of oil degradation – a swift response before a breakdown occurs

👉 Insulation safety assessment – minimising the risk of electrical breakdown

👉 Oil insulation quality control – ensuring stable transformer operation

👉 Early detection of internal faults – diagnosis of overheating, short circuits and breakdowns

👉 Assessment of the degree of degradation of insulating paper – prediction of the transformer’s service life

👉 Minimising the impact of contamination on the insulation system – improving operational reliability

👉 Monitoring oil ageing – monitoring the degradation process of the insulating medium

👉 Quick assessment of changes in the oil – an early indication of oxidation and contamination

👉 Detection of oil contamination or degradation – quality control of the insulating medium

👉 Operational safety assessment – identification of dilution and thermal risks

👉 Precise quality control of insulating oil – improving workplace safety

👉 Ensuring proper airflow and cooling – stable transformer operation

👉 Checking the oil’s performance parameters – protecting the insulation system