Lectures related to Shell-and-tube heat exchanger

Covers the design and performance analysis of heat exchangers using the effectiveness-NTU method and finned-tube examples.

Explores the practical realization and applications of Stirling engines, highlighting their advantages and challenges.

Covers the fundamentals and applications of heat exchangers in heat pumps.

Explores heat recovery principles, energy balance, and identifying penalizing heat exchangers for optimizing energy efficiency and cost savings.

Delves into heat recovery in industrial processes, showcasing methods to optimize energy usage and maximize heat recovery.

Explores the Stirling cycle, its efficiency, practical implementation, historical context, and modern applications in refrigeration technology.

Focuses on calculating the real value for maximum heat recovery and optimizing delta T minimum for economic feasibility.

Explores heat recovery analysis, optimizing heat exchange processes using delta T minimum and graph theory.

Explores heat exchange, psychrometric diagrams, and the importance of latent heat.

Explores the practical implementation of the Stirling cycle and its efficiency calculations.

Covers the real heat pump cycle, including its typical layout, conditions, representation, compressor efficiency, exergy analysis, and limitations.

Explores the fundamentals of heat exchangers, including conduction, convection, and temperature profiles, with practical examples.

Explores fundamental characteristic times and process efficiency in miniaturization for enhanced heat and mass transfer.

Covers thermodynamic principles essential for understanding renewable energy applications and chemical reactions.

Covers the fundamentals of heat transfer processes, including convection, conduction, and radiation.