Course Overview
How do you do a Machinery failure analysis? This program aims to convey the latest thinking and best practices used in all Industry Equipment and Components, Operation and Troubleshooting conditions, Monitoring, and Analysis. Also, it provides a detailed advanced treatment of the detection, location, and diagnosis of faults in Mechanical Equipment. Case studies, examples are used throughout the program to focus on the key points and to underline the relevance and applicability of the topics being addressed.
What are the causes of Machinery failure? This course will provide a firm foundation for technologists moving into a machine monitoring and diagnostic role. Participants will study the technique, tools and procedure of root cause failure analysis and failure mode effective analysis as a proactive strategy for achieving precise operation and improving machinery performance. This Zoe course offers insight into how to analyse a system’s failure modes and define how to prevent or find those failures early.
Why This Course Is Required?
Machinery failure analysis and troubleshooting training is essential for industrial operations where equipment failures can result in catastrophic consequences, costly downtime, and safety hazards. The transmission of mechanical equipment is complicated, and the interconnection between equipment components in a complex industrial environment can easily lead to faults, making multi-scale sensor information fusion methods and advanced fault diagnosis techniques critical for maintaining operational efficiency. Without comprehensive failure analysis knowledge, maintenance professionals struggle to implement effective fault detection, classification, and prioritization strategies that are essential for preventing equipment failures and maintaining competitive advantage in modern industrial operations.
The implications of equipment failure have become more critical with the increasing size and intricacy of machinery, making systematic failure analysis training essential for maintaining operational competitiveness and implementing advanced reliability assessment methodologies. Equipment breakdown causes are varied and complex, requiring a detailed and accurate analysis approach that not only aids in preventing future breakdowns but also enhances overall operational efficiency.
Research demonstrates that machinery failure analysis and troubleshooting training is essential for industrial operations where equipment failures can result in catastrophic consequences, costly downtime, and safety hazards. Modern industrial environments require sophisticated approaches to fault detection and diagnosis to maintain competitive advantage and operational safety.
Course Objectives
Upon completion of the Machinery Failure Analysis and Troubleshooting course, the participants will be able to:
- Strengthen and update understanding of the Terminology used in measuring and analysis
- Offer methods to improve equipment through the prediction and the avoidance of Equipment Failure
- Understanding and considering the critical necessities and priorities associated in maintaining machinery
- Key procedure for the implementation and application of risk-based failure analysis
- Become familiar with condition-based maintenance rather than corrective maintenance
- Implement and apply real improvements in machinery reliability and plant performance
- Work on case studies based on both technical and non-technical situations
- Know how to reduce the overall life cycle cost of owning a piece of equipment
- Maximize and increase component life by avoiding the cause of failure
- Manage critical equipment and functional failure
Master machinery reliability and drive operational excellence—enroll today to become an expert in failure analysis and troubleshooting!
Training Methodology
The course will be conducted with formal lectures, case studies and interactive work-related examples will be provided. This training course includes the following training methodologies:
- Lectures delivered by experienced machinery reliability professionals
- Case Studies & Practical Exercises based on real-world scenarios
- Videos and General Discussions for enhanced understanding
- Interactive work-related examples to focus on key points
This immersive approach fosters collaborative learning through peer interaction, group problem-solving, and knowledge sharing among participants from diverse industrial backgrounds. The methodology emphasizes practical skill development over theoretical memorization, ensuring participants leave with immediately applicable tools and strategies.
ZTS follows the ‘Do-Review-Learn-Apply’ model, creating a structured learning journey that transforms failure analysis knowledge into operational excellence through systematic practice and implementation.
Who Should Attend?
This course is designed for:
- Design Engineers responsible for equipment reliability and performance
- Operation Engineers managing day-to-day machinery operations
- Supervisors overseeing maintenance and production activities
- Maintenance Engineers involved in equipment repair and upkeep
- Planning Engineers developing maintenance strategies and schedules
- Mechanical Engineers working in refineries, petrochemical plants and power stations
- Production Engineers focused on operational efficiency
- Senior Technicians involved in equipment troubleshooting and diagnostics
Organizational Benefits
Companies who send in their employees to participate in this Machinery Failure Analysis and Troubleshooting course can benefit in the following ways:
- Know how to reduce the overall life cycle cost of owning a piece of equipment
- Maximize and increase component life by avoiding the cause of failure
- Manage critical equipment and functional failure
- Enhanced equipment reliability through systematic maintenance planning approaches
- Reduced lifecycle costs and improved operational efficiency
- Better performance as equipment systems and their subsystems perform more efficiently
Studies show that organizations investing in machinery failure analysis and troubleshooting training achieve substantial improvements in equipment reliability, reduced lifecycle costs, and enhanced operational efficiency through systematic maintenance planning approaches. Appropriate maintenance planning reduces the overall maintenance cost, increases machine life, and results in better performance as equipment systems and their subsystems must perform efficiently and be reliable during their lifetime.
Empower your organization with machinery reliability expertise—enroll your team today and see the transformation in equipment performance and operational efficiency!
Personal Benefits
Professionals who take part in this Machinery Failure Analysis and Troubleshooting course can benefit in the following ways:
- Become familiar with condition-based maintenance rather than corrective maintenance, enabling proactive equipment management and strategic maintenance planning
- Implement and apply real improvements in machinery reliability and plant performance through systematic analysis methodologies and proven troubleshooting techniques
- Work on case studies based on both technical and non-technical situations, developing comprehensive problem-solving skills applicable across diverse industrial scenarios
- Enhanced career prospects through specialized knowledge in machinery diagnostics, positioning yourself as a valuable asset in reliability engineering and maintenance management roles
- Improved problem-solving capabilities for complex equipment challenges, enabling faster resolution of critical machinery issues and reduced downtime
- Greater confidence in managing critical equipment and preventing failures through mastery of root cause analysis techniques and failure mode identification
- Advanced understanding of risk-based failure analysis procedures, allowing for more strategic and cost-effective maintenance decision-making
- Comprehensive knowledge of modern troubleshooting tools and techniques, including FMEA, fault tree analysis, and condition monitoring technologies
- Ability to reduce overall equipment lifecycle costs through predictive maintenance strategies and failure prevention methodologies
- Enhanced technical communication skills for presenting failure analysis findings and recommendations to management and cross-functional teams
- Professional recognition as a machinery reliability expert, opening opportunities for leadership roles in maintenance and engineering departments
Course Outline
Module 1: Concept of Failure
- Pre – Test
- Introduction to Failure Analysis and Troubleshooting Systems
- Causes of Machinery Failure
- Machinery Design Properties
- Equipment Failure
- Types of Failure Causes
- Effect of Failure
- Failure Cascading
- Failure Modes
- Chronic vs. Sporadic Failures
- Failure Reporting
- Failure Reduction Programs
Module 2: Root Cause Failure Analysis Process
- What is RCFA?
- Why it is done?
- Types of Root Causes
- SEVEN Generic Steps in an RCFA
- Challenges in Setting up RCFA
- Sustaining an RCFA Process
- Application on RCFA (Exercises)
Module 3: Failure Analysis & Investigation Tools
- Brainstorming
- Flow Charts
- Histograms
- Fishbone Diagrams
- Pareto Charts
- Fault Tree Analysis
- Failure Mode and Effect Analysis (FMEA)
- Applications (Exercises)
Module 4: Failure Mode and Effect Analysis (FMEA)
- Failure Analysis Methods
- Common Failure Analysis Techniques
- Implementing FMEA
- FMEA Procedure
- Application of FMEA (Exercises)
Module 5: Machinery Troubleshooting
- Condition Monitoring
- Machine Failure Modes
- Equipment Performance
- Methods of Detection
- Applications (Machine Failure)
Module 6: Structured Problem-Solving Techniques
- Win – Win Problem Solving
- Development of Problem-Solving Skills
- Alternative Solution Training
- Formulate Alternative Strategies
- Guidelines for Decision Making
- Priority ‐ Setting
Module 7: Machine Reliability
- Reliability, availability, maintainability
- Risk Assessment and Management
- Life Cycle Management
- Reliability & Maintainability
- Techniques & Analysis of Reliability
- Human and System Reliability
- Human Performance Approach
- Reliability Centered Maintenance
- Centrifugal Pump-Reliability Improvement
- Machinery Reliability Audits and Reviews
Module 8: Case Studies
- Failure causes in Journal and Tilting Pad Thrust Bearings
- Mechanical Seal Failure Modes
- Lubricant of Pumps and Motor Problems
- Causes of Shaft Failure
- Causes of Coupling Failure
- Causes of Gear Failure
- Post Test
Real World Examples
The impact of machinery failure analysis and troubleshooting training is evident in leading implementations:
- Hewlett Packard (HP) Manufacturing Operations (USA)
Implementation: HP electronics engineer Lock Chee Seng implemented systematic failure analysis procedures for prototype printer development, using thermal imaging and troubleshooting techniques to identify problematic printed circuit boards (PCBs) that overheated during motor driver operation.
Results: Successfully isolated defective PCBs before installation into prototype printers, preventing potential field failures and protecting HP’s reputation while ensuring product quality across the entire manufacturing spectrum from lab prototyping to mass production. - KHE Petrochemical Plant Compressor Failure Analysis (Global)
Implementation: KHE performed comprehensive root cause failure analysis on a 5500 horsepower two-stage compressor that suffered catastrophic failure during a scheduled turnaround, involving on-site assessment, metallurgical lab analysis, and finite element analysis modeling.
Results: Identified corrosive agents and control system inaccuracies as root causes, leading to improved process controls, enhanced scrubber performance, and prevention of similar failures through systematic analysis of process data, metallurgical evidence, and stress modeling. - Industrial Screwing Station FMEA Implementation (Global)
Implementation: Industrial facility implemented advanced Failure Mode and Effect Analysis (FMEA) methodology using network science approaches to assess risks associated with machinery and equipment failure in a screwing station operation.
Results: Enhanced risk assessment capabilities through improved identification of failure causes and effects, strengthened personal safety of employees, and improved safety of manufactured products through systematic machinery risk evaluation and prevention strategies.
Be inspired by industry-leading reliability achievements—register now to build the machinery failure analysis skills your organization needs for operational excellence!
