Applied Thermodynamics

This course explores the application of thermodynamic principles in mechanical and process engineering. It covers fundamental concepts such as equations of state, reversible processes, and system boundaries, along with the first and second laws of thermodynamics. Students will delve into thermodynamic properties of pure fluids and simple mixtures. The course emphasizes utilizing these principles to optimize processes, create new methods, and design measuring devices for data collection. Practical application extends to existing machinery for improved efficiency and energy-saving alternatives. By bridging theory and real-world scenarios, students gain essential skills for innovative engineering solutions and sustainable practices.

Learning outcomes / Competencies:

• Thermodynamic Principles Application: Apply fundamental thermodynamic concepts to analyze and model various engineering systems, predicting behaviors and interactions of fluids and mixtures within diverse scenarios.
• Process Optimization and Innovation: Utilize thermodynamic principles to identify optimization potential in engineering processes, propose innovative solutions, and develop new methods that enhance efficiency and resource utilization.
• Measurement Device Design: Design and construct measuring devices grounded in thermodynamic principles, enabling accurate data collection for process analysis and supporting the development of effective engineering solutions.
• Efficiency Evaluation and Sustainable Design: Assess the efficiency of existing machinery using thermodynamic analysis, and recommend energy-efficient alternatives that align with sustainable engineering practices, addressing environmental concerns.
• Theory-Practice Integration: Bridge theoretical knowledge with practical applications, demonstrating the ability to translate thermodynamic principles into actionable engineering solutions for complex challenges, while effectively communicating findings to diverse audiences.