Internal Combustion Engine Systems (ICE)

Introduction:

This Internal Combustion Engines (ICE) program provides participants with a comprehensive understanding of the operating principles of various internal combustion engines, including those used in electrical power generators, gas turbines in power plants, aircraft engines, and automobiles. The course covers key aspects such as materials, design principles, and selection criteria.

The program emphasizes the technological definitions, efficiency, and functionality of internal combustion engines, offering a socio-technical perspective in today’s modern world.

Designed for individuals seeking an extensive intellectual viewpoint on ICEs, this course is ideal for engineers, scientists, technicians, and professionals who aspire to gain advanced knowledge in this field.

Objectives:

Upon completion of the Internal Combustion Engines (ICE) course, participants will be able to:

• Trace the historical development of internal combustion engines, highlighting major milestones.
• Identify and understand the internal and external components of various types of internal combustion engines.
• Discuss industry-specific elements, including the roles of different engine components.
• Engage in discussions on the design and manufacturing of internal combustion engines, focusing on achieving high efficiency and performance.

Training Methodology:

• Interactive workshops
• Case studies
• Hands-on exercises
• Group discussions
• Simulation-based learning
• Expert-led presentations
• Problem-solving activities
• Real-world scenario analysis

Course Outline:

Unit 1: The Development and Fundamentals of Internal Combustion Engines

• Basic operational principles
• Key stages in the evolution of internal combustion engines
• Definitions and characteristics of internal combustion engines
• Types of engines, including the Wankel engine and stratified charge engines
• The future and significance of internal combustion engines

Unit 2: Types, Components, and Workings of Internal Combustion Engines

• Review of thermodynamic laws applied to ICEs
• Combustion phenomena and fuel types
• Spark Ignition Systems and Compression Ignition Engines
• Induction and exhaust processes in relation to engine mechanisms
• Details of two-stroke engines and turbocharging

Unit 3: Applications and Performance Optimization in ICE

• Introduction to zero-dimension modeling
• Case study: TME turbocharged medium-speed diesel engine modeling
• Mechanical design and its impact on engine efficiency
• Instrumentation of quasi-steady engines
• Measurement of exhaust emissions and analysis
• Use of analyzers like Chemiluminescence, Oxygen, and air/fuel ratio
• Review of exhaust smoke, particles, EGR, and ERM examination

Unit 4: Monitoring the Benefits and Impact of Internal Combustion Engines

• Power-to-weight ratio and engine size considerations
• Low power applications and portability requirements
• Fuel types and cost analysis
• Assessment of engine emissions and their environmental impact
• Examination of noise caused by fuel combustion

Unit 5: Safety, Maintenance, and Risks Associated with Internal Combustion Engines

• Comparison of internal combustion engine pollution vs. electric vehicle pollution
• Thermal, chemical burn, and fume explosion hazards
• Safe handling practices for high-pressure tubular gases and cylinders

Conclusion:

Throughout this internal combustion engine course, participants will develop both fundamental and advanced knowledge of ICEs, understanding their significance, advantages, and relevance in modern applications. The course combines theoretical studies with practical exercises, ensuring participants gain a well-rounded comprehension of ICE training and its real-world applications.