Reliability Engineering & Failure Analysis Training Course

Master critical reliability engineering and failure analysis techniques through this intensive hands-on program. Develop expertise in Root Cause Analysis (RCA), Failure Mode and Effects Analysis (FMEA), and LabVIEW simulation while learning advanced testing methodologies and predictive maintenance strategies. Gain practical experience with real-world case studies, interactive workshops, and team-based projects that prepare you for immediate application in manufacturing and engineering environments.

Face-to-Face Nov 23-26, 2026 9:00 AM - 5:00 PM Habil Hadi Mohammed
updated
intermediate
Reliability & Failure Analysis
We price match

Public Pricing

MYR 12000

Corporate Pricing

Pax:

Training Fees: MYR 6500/day
Total Fees: MYR 26000 ++

Training Provider Pricing

Pax:

Training Fees: MYR 2800/day
Material Fees: MYR 600
Total Fees: MYR 11800 ++

Features

4 days
32 modules
2 intakes
Full life-time access
English
Technical: 25 pax

Target Audience

engineers

Methodologies

lecture
slides
labs
case studies
group discussion
q&A

Classification

Focus Area Course
  • Addresses skill gaps across industries
  • Emphasizes emerging technologies and practices
  • Enhances workforce capabilities
  • Verified by industry experts
  • Broadly applicable across sectors

Subsidies

HRDC Claimable logo

What you'll learn

  • Execute Failure Mode and Effects Analysis (FMEA) processes including Design FMEA (D-FMEA) and Process FMEA (P-FMEA) with severity, occurrence, and detection assessments
  • Utilize advanced failure analysis techniques including Scanning Electron Microscopy (SEM), X-ray inspection, and Automated Optical Inspection (AOI)
  • Apply fundamental reliability engineering concepts including Mean Time Between Failures (MTBF), failure rates, and availability calculations in manufacturing environments
  • Design and implement predictive maintenance systems using vibration, thermal, and acoustic sensors with trend monitoring capabilities
  • Create comprehensive control plans linked to FMEA outputs and integrate Design for Reliability (DfR) principles into product development processes
  • Develop and implement LabVIEW Virtual Instruments (VI) for failure simulation, real-time monitoring, and data acquisition integration
  • Conduct comprehensive Root Cause Analysis (RCA) and Business Failure Analysis (BFA) using logic trees, fishbone diagrams, and fault tree methodologies

Why should you attend?

This comprehensive training program provides participants with essential skills in reliability engineering and failure analysis methodologies. The course begins with fundamental concepts including Mean Time Between Failures (MTBF), Mean Time To Failure (MTTF), failure rates, and availability metrics, while distinguishing between reliability and quality principles. Participants explore various failure types in manufacturing environments, focusing on Printed Circuit Board (PCB) assembly issues such as solder fatigue and trace burnout, along with Surface Mount Technology (SMT), box-build, and connector failures across mechanical, electrical, and thermal categories. The program emphasizes practical Root Cause Analysis (RCA) and Business Failure Analysis (BFA) techniques through interactive activities and case simulations. Participants master logic tree construction, fishbone diagrams, and fault tree analysis while engaging in hands-on workshops. The course integrates LabVIEW software training for failure simulation and monitoring, enabling participants to create Virtual Instruments (VI) for thermal overstress detection and real-time system monitoring with data acquisition integration. Advanced topics include Failure Mode and Effects Analysis (FMEA) methodologies, distinguishing between Design FMEA (D-FMEA) and Process FMEA (P-FMEA), along with severity, occurrence, and detection assessments. The program covers reliability testing techniques including Highly Accelerated Life Testing (HALT), burn-in procedures, and Environmental Stress Screening (ESS) applications. Participants learn failure analysis techniques using Scanning Electron Microscopy (SEM), X-ray inspection, In-Circuit Testing (ICT), and Automated Optical Inspection (AOI). The course culminates with team-based projects integrating all learned concepts, followed by presentations and peer evaluations to reinforce practical application of reliability engineering principles.

Course Syllabus

Day 1 - Reliability Fundamentals & Analysis
Module 1
Module 2
Short Break
15 mins
Module 3
Module 4
Recap and Q&A
15 mins
Lunch
1 hour
Module 5
Module 6
Short Break
15 mins
Module 7
Module 8
Recap and Q&A
15 mins
End of Day 1
Day 2 - Testing & LabVIEW Basics
Module 9
Module 10
Short Break
15 mins
Module 11
Module 12
Recap and Q&A
15 mins
Lunch
1 hour
Module 13
Module 14
Short Break
15 mins
Module 15
Module 16
Recap and Q&A
15 mins
End of Day 2
Day 3 - FMEA & Predictive Maintenance
Module 17
Module 18
Short Break
15 mins
Module 19
Module 20
Recap and Q&A
15 mins
Lunch
1 hour
Module 21
Module 22
Short Break
15 mins
Module 23
Module 24
Recap and Q&A
15 mins
End of Day 3
Day 4 - Advanced Systems & Projects
Module 25
Module 26
Short Break
15 mins
Module 27
Module 28
Recap and Q&A
15 mins
Lunch
1 hour
Module 29
Module 30
Short Break
15 mins
Module 31
Module 32
Recap and Q&A
15 mins
End of Day 4

Instructor

Loading...
Habil Hadi Mohammed Additive Manufacturing & 3D Printing Specialist
Trainer Profile
Trainer Profile
Habil Hadi Mohammed is a highly skilled Mechanical Engineer and Research Fellow specializing in advanced manufacturing technologies, with particular expertise in additive manufacturing, 3D printing, and functionally graded materials (FGM). Currently pursuing his PhD in Biomedical Engineering at Universiti Putra Malaysia (UPM), he combines strong academic credentials with practical engineering experience to deliver innovative solutions across multiple industries. With a Master's degree in Manufacturing Systems Engineering (CGPA 3.81/4) and a Bachelor's in Mechanical Engineering, Habil has established himself as an expert in the rapidly evolving field of additive manufacturing. His research focuses on cutting-edge topics including multi-material 3D printing, material extrusion processes, and surface finishing techniques for FDM printed parts. His work has been recognized at international conferences in Slovenia, Malaysia, and Hong Kong, where he has presented papers on FGM implementation and material flow control in additive manufacturing. As a Research Fellow at UPM since 2021, Habil has demonstrated exceptional capabilities in software development, automation, and prototype design. He has successfully developed software for multi-material FGM 3D printers, designed automated sports equipment, and created hydroponic plant systems. His current role as a Developer Engineer for an international Swiss company showcases his ability to bridge theoretical knowledge with practical application, where he designs, programs, and develops machines using both 3D printing and conventional manufacturing techniques. Habil's technical proficiency spans multiple programming languages including Python, C/C++, Arduino, XCode, and Swift, complemented by expertise in CAD software such as AutoCAD, Fusion360, ANSYS, and SolidWorks. His analytical skills are enhanced by proficiency in data analysis tools including Minitab, SPSS, and Python. Beyond technical skills, his management experience as an Area Manager demonstrates strong leadership abilities, having successfully doubled sales through strategic planning and employee training. Multilingual and culturally adaptable, Habil brings a unique global perspective to engineering challenges, making him an invaluable asset for organizations seeking innovation in manufacturing technology and engineering education.
120 Courses
English
9 Years

FAQ

Frequently Asked Questions About This Course

Why should you attend?

This comprehensive training program provides participants with essential skills in reliability engineering and failure analysis methodologies. The course begins with fundamental concepts including Mean Time Between Failures (MTBF), Mean Time To Failure (MTTF), failure rates, and availability metrics, while distinguishing between reliability and quality principles. Participants explore various failure types in manufacturing environments, focusing on Printed Circuit Board (PCB) assembly issues such as solder fatigue and trace burnout, along with Surface Mount Technology (SMT), box-build, and connector failures across mechanical, electrical, and thermal categories. The program emphasizes practical Root Cause Analysis (RCA) and Business Failure Analysis (BFA) techniques through interactive activities and case simulations. Participants master logic tree construction, fishbone diagrams, and fault tree analysis while engaging in hands-on workshops. The course integrates LabVIEW software training for failure simulation and monitoring, enabling participants to create Virtual Instruments (VI) for thermal overstress detection and real-time system monitoring with data acquisition integration. Advanced topics include Failure Mode and Effects Analysis (FMEA) methodologies, distinguishing between Design FMEA (D-FMEA) and Process FMEA (P-FMEA), along with severity, occurrence, and detection assessments. The program covers reliability testing techniques including Highly Accelerated Life Testing (HALT), burn-in procedures, and Environmental Stress Screening (ESS) applications. Participants learn failure analysis techniques using Scanning Electron Microscopy (SEM), X-ray inspection, In-Circuit Testing (ICT), and Automated Optical Inspection (AOI). The course culminates with team-based projects integrating all learned concepts, followed by presentations and peer evaluations to reinforce practical application of reliability engineering principles.


What you'll learn

  • Execute Failure Mode and Effects Analysis (FMEA) processes including Design FMEA (D-FMEA) and Process FMEA (P-FMEA) with severity, occurrence, and detection assessments
  • Utilize advanced failure analysis techniques including Scanning Electron Microscopy (SEM), X-ray inspection, and Automated Optical Inspection (AOI)
  • Apply fundamental reliability engineering concepts including Mean Time Between Failures (MTBF), failure rates, and availability calculations in manufacturing environments
  • Design and implement predictive maintenance systems using vibration, thermal, and acoustic sensors with trend monitoring capabilities
  • Create comprehensive control plans linked to FMEA outputs and integrate Design for Reliability (DfR) principles into product development processes
  • Develop and implement LabVIEW Virtual Instruments (VI) for failure simulation, real-time monitoring, and data acquisition integration
  • Conduct comprehensive Root Cause Analysis (RCA) and Business Failure Analysis (BFA) using logic trees, fishbone diagrams, and fault tree methodologies

Course Syllabus

Day 1 - Reliability Fundamentals & Analysis
Module 1
Module 2
Short Break
15 mins
Module 3
Module 4
Recap and Q&A
15 mins
Lunch
1 hour
Module 5
Module 6
Short Break
15 mins
Module 7
Module 8
Recap and Q&A
15 mins
End of Day 1
Day 2 - Testing & LabVIEW Basics
Module 9
Module 10
Short Break
15 mins
Module 11
Module 12
Recap and Q&A
15 mins
Lunch
1 hour
Module 13
Module 14
Short Break
15 mins
Module 15
Module 16
Recap and Q&A
15 mins
End of Day 2
Day 3 - FMEA & Predictive Maintenance
Module 17
Module 18
Short Break
15 mins
Module 19
Module 20
Recap and Q&A
15 mins
Lunch
1 hour
Module 21
Module 22
Short Break
15 mins
Module 23
Module 24
Recap and Q&A
15 mins
End of Day 3
Day 4 - Advanced Systems & Projects
Module 25
Module 26
Short Break
15 mins
Module 27
Module 28
Recap and Q&A
15 mins
Lunch
1 hour
Module 29
Module 30
Short Break
15 mins
Module 31
Module 32
Recap and Q&A
15 mins
End of Day 4
We price match

Public Pricing

MYR 12000

Corporate Pricing

Pax:

Training Fees: MYR 6500/day
Total Fees: MYR 26000 ++

Training Provider Pricing

Pax:

Training Fees: MYR 2800/day
Material Fees: MYR 600
Total Fees: MYR 11800 ++

Features

4 days
32 modules
2 intakes
Full life-time access
English
Technical: 25 pax

Target Audience

engineers

Methodologies

lecture
slides
labs
case studies
group discussion
q&A

Classification

Focus Area Course
  • Addresses skill gaps across industries
  • Emphasizes emerging technologies and practices
  • Enhances workforce capabilities
  • Verified by industry experts
  • Broadly applicable across sectors

Subsidies

HRDC Claimable logo

Instructor

Loading...
Habil Hadi Mohammed Additive Manufacturing & 3D Printing Specialist
Trainer Profile
Trainer Profile
Habil Hadi Mohammed is a highly skilled Mechanical Engineer and Research Fellow specializing in advanced manufacturing technologies, with particular expertise in additive manufacturing, 3D printing, and functionally graded materials (FGM). Currently pursuing his PhD in Biomedical Engineering at Universiti Putra Malaysia (UPM), he combines strong academic credentials with practical engineering experience to deliver innovative solutions across multiple industries. With a Master's degree in Manufacturing Systems Engineering (CGPA 3.81/4) and a Bachelor's in Mechanical Engineering, Habil has established himself as an expert in the rapidly evolving field of additive manufacturing. His research focuses on cutting-edge topics including multi-material 3D printing, material extrusion processes, and surface finishing techniques for FDM printed parts. His work has been recognized at international conferences in Slovenia, Malaysia, and Hong Kong, where he has presented papers on FGM implementation and material flow control in additive manufacturing. As a Research Fellow at UPM since 2021, Habil has demonstrated exceptional capabilities in software development, automation, and prototype design. He has successfully developed software for multi-material FGM 3D printers, designed automated sports equipment, and created hydroponic plant systems. His current role as a Developer Engineer for an international Swiss company showcases his ability to bridge theoretical knowledge with practical application, where he designs, programs, and develops machines using both 3D printing and conventional manufacturing techniques. Habil's technical proficiency spans multiple programming languages including Python, C/C++, Arduino, XCode, and Swift, complemented by expertise in CAD software such as AutoCAD, Fusion360, ANSYS, and SolidWorks. His analytical skills are enhanced by proficiency in data analysis tools including Minitab, SPSS, and Python. Beyond technical skills, his management experience as an Area Manager demonstrates strong leadership abilities, having successfully doubled sales through strategic planning and employee training. Multilingual and culturally adaptable, Habil brings a unique global perspective to engineering challenges, making him an invaluable asset for organizations seeking innovation in manufacturing technology and engineering education.
120 Courses
English
9 Years

FAQ

Frequently Asked Questions About This Course

Close menu