Course Overview

Thermodynamics and heat transfer form the foundation of modern energy systems, influencing the design, operation, and efficiency of power plants, industrial processes, refrigeration systems, and mechanical equipment. A sound understanding of thermal energy transfer and thermodynamic principles is essential for improving system performance, reducing energy consumption, and supporting sustainable engineering solutions.

The Introduction to Thermodynamics and Heat Transfer programme by TransforMentors Academy provides participants with a practical understanding of the principles governing energy conversion and thermal energy transfer in engineering systems. The course covers the fundamentals of thermodynamics, properties of working fluids, conservation laws, work and heat transfer processes, the first and second laws of thermodynamics, and performance evaluation of energy systems.

Through practical exercises, engineering examples, and real-world case studies, participants will explore closed and open systems, power plant fundamentals, heat transfer mechanisms, refrigeration and heat pump applications, internal combustion engines, and methods for analysing and improving thermodynamic performance. The programme combines theoretical knowledge with practical problem-solving techniques to support a wide range of engineering applications.

Agenda

Day — 1 Exploring Thermodynamics: Systems, Properties, and the First Law in Energy Transfer

• Understanding the concepts of open and closed thermodynamic systems
• Exploring the key thermodynamic properties used in energy analysis
• Applying the principle of energy conservation to closed systems
• Understanding the mechanisms of work transfer in thermodynamic processes
• Analysing the work required to compress air in practical applications
• Understanding the First Law of Thermodynamics for closed systems and its engineering significance
• Exercise: Solve practical problems involving energy balance and work transfer in closed systems

Day — 2 Heat Transfer, Phases, and Properties: Unveiling Thermodynamics from Saturation to Ideal Gas Models

• Understanding the fundamental principles of heat transfer in thermodynamic systems
• Exploring phase diagrams and phase-change processes
• Examining thermodynamic properties and the behaviour of substances in the saturation region
• Understanding internal energy, enthalpy, and specific heats and their engineering applications
• Exploring incompressible substance and ideal gas models for equations of state
• Applying the ideal gas model to analyse thermodynamic processes and system performance
• Exercise: Solve practical problems involving heat transfer, phase changes, and ideal gas behaviour

Day — 3 Mass Conservation, Power Cycles, and the Second Law: Navigating Thermodynamics in Practical Systems

• Understanding the principle of mass conservation for open thermodynamic systems
• Exploring the operation and applications of steam turbines
• Understanding the use of steam tables for thermodynamic analysis
• Examining the fundamentals of power cycle analysis
• Exploring refrigeration and heat pump cycles and their practical applications
• Understanding the conceptual foundations of the Second Law of Thermodynamics and its engineering significance
• Exercise: Analyse power and refrigeration cycles using thermodynamic principles

Day — 4 Efficiency and Power: Investigating the Carnot Cycle, Rankine Power Plants, and Advanced Performance Methods

• Understanding the principles and significance of the Carnot cycle
• Exploring the operation and components of the Rankine power plant cycle
• Introducing the concepts of ideal performance and entropy in thermodynamic systems
• Examining advanced methods for improving the efficiency of Rankine power plants
• Analysing practical examples and solving problems related to Rankine cycle performance
• Applying thermodynamic principles to evaluate and optimise power generation systems
• Exercise: Perform efficiency calculations and analyse the performance of a Rankine power plant

Day — 5 Exploring Brayton Cycles, Combined Power, Energy Carriers, Performance Benchmarks, and Internal Combustion Engine Mechanics

• Understanding the principles and operation of Air Standard Power Cycles, including the Brayton cycle
• Exploring combined cycle systems and waste heat recovery for improved energy efficiency
• Examining the role and applications of energy carriers in modern energy systems
• Understanding performance benchmarks and methods for evaluating thermodynamic systems
• Exploring the fundamental components and operation of internal combustion engines
• Applying thermodynamic principles to analyse power generation and engine performance
• Exercise: Evaluate the performance of Brayton and combined cycle systems and their practical applications
• Key takeaways and course evaluation

Learning Outcomes

By attending the Overview of Thermodynamics: Transferring Energy from Here to There course, you will be able to:

• Understand the fundamental principles of thermodynamics and their role in energy transfer processes
• Distinguish between open and closed thermodynamic systems and their engineering applications
• Explore the key thermodynamic properties used to analyse and predict energy system behaviour
• Apply the principles of energy and mass conservation to closed and open systems
• Understand the mechanisms of work transfer and heat transfer in thermodynamic systems
• Explain the fundamentals of the second law of thermodynamics and its practical significance
• Evaluate thermodynamic performance and establish benchmarks for energy systems and processes
• Apply thermodynamic concepts to solve practical engineering problems, including power plant and energy system applications

Who Should Attend

The Overview of Thermodynamics: Transferring Energy from Here to There course is ideal for professionals seeking to strengthen their understanding of thermodynamic principles and energy systems. It is especially beneficial for:

• Mechanical and Thermal Engineers
• Energy and Power Engineers
• Power Plant Operators and Engineers
• Mechanical and Thermal System Designers
• Refrigeration and Heat Pump Professionals
• Energy Analysts and Planners
• Engineers and Technicians involved in energy and thermal systems
• Students and Graduates in engineering and applied sciences
• Process and Industrial Engineers
• Anyone involved in the design, operation, or optimisation of thermodynamic and energy systems