The program emphasizes analytical understanding, interpretation of vibration behavior, and decision-making in balancing and diagnostics using international best practices. Learning is delivered through expert-led lectures, case studies, simulations, and group discussions, enabling participants to strengthen their technical judgment without physical machine intervention.

By the end of this course, participants will be able to:

• Understand the principles of rotating machinery dynamics and vibration behavior
• Analyze dynamic forces acting on shafts and rotors
• Explain the causes and effects of different types of rotor unbalance
• Understand critical speeds, resonance, damping, and stability
• Interpret vibration data related to imbalance conditions
• Apply balancing principles to real industrial scenarios
• Evaluate balancing strategies for different machine types
• Improve machinery reliability, availability, and lifecycle performance
• Support maintenance and reliability decisions using vibration and balancing data

This course is designed for:

• Maintenance and reliability engineers
• Mechanical and rotating equipment engineers
• Vibration analysts and condition monitoring professionals
• Plant and operations engineers
• Maintenance planners, supervisors, and technical specialists
• Professionals responsible for rotating machinery performance, diagnostics, or reliability

This interactive Training will be highly interactive, with opportunities to advance your opinions and ideas and will include:
• Lectures
• Workshop & Work Presentation
• Case Studies and Practical Exercise
• Videos and General Discussions

Day 1 – Fundamentals of Machinery Dynamics

• Overview of rotating machinery in industrial systems
• Principles of vibration and dynamic motion
• Types of vibration in machinery
• Dynamic forces and system response
• Mass, stiffness, and damping concepts
• Introduction to vibration measurement and interpretation

Day 2 – Rotor Dynamics and Critical Speeds

• Rotor and shaft dynamic behavior
• Natural frequencies and mode shapes
• Critical speeds and resonance phenomena
• Effects of bearings, supports, and foundations
• Gyroscopic and centrifugal forces
• Stability, whirl, and whip in rotating machinery

Day 3 – Unbalance and Its Impact on Machinery

• Types of rotor unbalance (static, couple, dynamic)
• Root causes of unbalance in industrial machines
• How unbalance appears in vibration spectra
• Relationship between speed, mass, and centrifugal force
• Effects of unbalance on bearings, seals, couplings, and shafts
• Reliability and safety implications

Day 4 – Balancing Principles and Methods

• Fundamentals of balancing theory
• Single-plane and two-plane balancing concepts
• Influence coefficient and trial weight methods
• Selection of balancing strategies
• Field balancing planning and evaluation
• Risk management and safety considerations

Day 5 – Advanced Balancing Applications and Case Studies

• Balancing of flexible and high-speed rotors
• Balancing challenges in fans, pumps, compressors, and turbines
• Interpretation of balancing results using vibration analyzers
• Case studies from real industrial machines
• Common balancing errors and how to avoid them
• Best practices for long-term machinery performance and reliability

A RECTUS attendance certificate will be awarded to all participants who complete at least 80% of the total course duration.