Training Courses

Understand the principles and methodologies of root cause failure analysis.

Identify common failure modes and mechanisms in engineering systems.

Apply structured problem-solving techniques to investigate failures.

Develop and implement effective corrective and preventive action plans.

Understand the thermo-mechanical behaviour and failure modes of composite materials.

Apply failure theory to composite component failures

Evaluating non-destructive and destructive testing techniques for defect and damage characterisation.

Recommend design and material improvements.

Distinguish between bearing types and their applications.

Calculate bearing life and load capacities.

Identify causes of bearing failure.

Select bearings based on performance criteria and environment.

Apply hydraulic principles to pump design.

Select appropriate pump types for applications.

Diagnose common pump failures and inefficiencies.

Match pump performance with system requirements.

Design HVAC systems using heat load and airflow calculations.

Select components such as chillers, ducts, and diffusers.

Apply energy efficiency strategies and regulations.

Diagnose HVAC system faults.

Conduct environmental noise measurements using Class 1 sound level meters.

Apply modelling tools to predict noise propagation.

Interpret regulatory frameworks and compliance limits.

Recommend mitigation and control measures.

Evaluate airborne and structure-borne noise levels in buildings.

Apply building acoustic design principles.

Use industry standards for calculations.

Recommend noise and vibration mitigation strategies.

Design for low noise and vibration levels.

Evaluate shock and vibration during lifecycle testing.

Apply international test standards (e.g., MIL-STD, ISO).

Recommend design changes for robustness.

Identify pipe vibration sources and modes.

Apply industry standards for assessment.

Recommend supports, dampers, and design changes.

Prevent fatigue failures and resonance.

Collect and interpret vibration signals from machinery.

Identify unbalance, misalignment, looseness, and bearing faults.

Use Fast Fourier Transform (FFT), envelope analysis, and waterfall plots.

Recommend maintenance actions based on vibration trends.