Diploma in Fault Diagnosis in Gearboxes/Drives

9.9 Introduction to Rotating Systems and Their Importance in the Naval Industry
9.9 Applicable International Regulations and Safety Standards
9.3 Fundamentals of Mechanical Engineering: Kinematics and Dynamics of Rotation
9.4 Materials and Manufacturing of Components in Rotating Systems
9.5 Design and Selection of Components for Transmission Systems
9.6 Principles of Lubrication and Cooling in Rotating Systems
9.7 Introduction to Vibration and Noise in Mechanical Systems
9.8 Failure Analysis and Its Relationship to Regulations
9.9 Case Study: Application of Regulations in a Naval Propulsion System

9.9 Classification of Gearboxes and Drives: Types and Configurations
9.9 Principles of Operation of Gearboxes: Design and Internal Functioning
9.3 Analysis of the Advantages and Disadvantages of Different Types of Gearboxes
9.4 Selection of Gearboxes and Drives: Technical and Economic Criteria
9.5 Design and Calculation of Gearboxes: Loads, Speeds, and Power
9.6 Introduction to Drives: Types and Applications in the Naval Industry
9.7 Coupling and Uncoupling Systems in Gearboxes and Drives
9.8 Integration of Gearboxes and Drives with Other Mechanical Systems
9.9 Case Study: Selection and Application of Gearboxes in a Specific Application

3.9 Diagnostic Methodologies: Systematic and Structured Approach
3.9 Visual Inspection Techniques and Wear Analysis
3.3 Vibration Analysis: Fundamentals and Applications
3.4 Thermography: Temperature-Based Fault Detection
3.5 Oil Analysis: Early Fault Detection
3.6 Ultrasound Techniques: Detection of Cracks and Internal Defects
3.7 Functional and Performance Tests: Methods and Procedures
3.8 Interpretation of Diagnostic Data and Development of Reports
3.9 Case Study: Application of Methodologies in a Real-World Environment

4.9 Rotating Components: Bearings, Gears, Shafts, and Seals
4.9 Component Life Evaluation
4.3 Finite Element Analysis (FEA) in Rotating Systems
4.4 Simulation of the Dynamic Behavior of Components
4.5 Frequency Response Analysis
4.6 Failure Modeling and Damage Simulation
4.7 Performance Evaluation: Efficiency and Losses
4.8 Optimization of Rotating Component Design
4.9 Case Study: Modeling and Evaluation of a Complex Gearbox

5.9 Case Studies: Failure Analysis in Gearboxes and Drives
5.9 Identification of Root Causes of Failures
5.3 Failure Mode and Effects Analysis (FMEA)
5.4 Solutions to Common Failures: Wear, Corrosion, Fatigue
5.5 Design and Selection of Components to Reduce Failures
5.6 Failure Mitigation Strategies
5.7 Repair and Replacement of Damaged Components
5.8 Implementation of Design Improvements
5.9 Case Study: Detailed Analysis and Solutions for a Specific Failure

6.9 Predictive Maintenance Strategies: Benefits and Applications
6.9 Reliability-Centered Maintenance (RCM) Techniques
6.3 Implementation of Online Monitoring Systems
6.4 Trend Analysis and Failure Forecasting
6.5 Lubrication and Fluid Management Strategies
6.6 Shaft and Gearbox Alignment Techniques
6.7 Design for Maintainability: Ease of Access and Replacement
6.8 Continuous Improvement and Feedback in the Maintenance Process
6.9 Case Study: Implementation of a Predictive Maintenance Program

7.9 Advanced Vibration Diagnostic Techniques
7.9 Analysis of Vibrations in Time and Frequency Domains
7.3 Signal Analysis: Advanced Processing Techniques
7.4 Advanced Ultrasonic Diagnostic Techniques
7.5 Oil Analysis: Specialized Techniques and Interpretation
7.6 Bearing Failure Diagnosis: Specialized Techniques
7.7 Gear Failure Diagnosis: Advanced Techniques
7.8 Interpretation of Complex Data and Decision Making
7.9 Case Study: Application of Advanced Techniques in a Specific Environment

8.9 Problem Solving: Practical Approach and Methodology
8.9 Field Data Analysis and Information Gathering
8.3 Real-Time Fault Diagnosis
8.4 Repair and Maintenance of Gearboxes and Drives
8.5 Component Adjustment: Alignment and Adjustments
8.6 Functional Testing and Verification of Repairs
8.7 Documentation of Failures and Solutions
8.8 Evaluation of Effectiveness Solutions
8.9 Practical Case: Solving a Complex Problem in the Field

9.9 Failure Simulation: Creating Scenarios and Models
9.9 Analysis of Simulation Results
9.3 Simulation Tools and Software
9.4 Interpreting Results and Decision Making
9.5 Validating Simulation Models
9.6 Simulating Failures in Different Types of Gearboxes and Drives
9.7 Sensitivity Analysis and Optimization
9.8 Using Simulation for Design Improvement
9.9 Using Simulation for Training
9.90 Case Study: Simulating a Complex Failure and Analyzing Results

9.90