This introduction to thermodynamics discusses typical phase diagrams features and presents the wide range of techniques such as Differential Scanning Calorimetry, Thermogravimetry and others. In the last part the author brings many examples for typical practical problems often solved by thermal analysis. As an instructive guideline for practitioners the work reveals the connection between experimental data and theoretical model and vice versa.

This book illustrates the basic concepts of phenomenological thermodynamics and how to move from theory to practice by considering problems in the fields of thermodynamics and energy-systems analysis. Many subjects are handled from an energetics or exergetics angle: calorimeters, evaporators, condensers, flow meters, sub or supersonic nozzles, ejec

This book consists of eighteen chapters. Chapter one presents introductory concepts and definitions along with a brief discussion of historical development of thermodynamics. Chapters two and three cover the first law of thermodynamics. Chapter two is devoted to the first law for control mass or closed systems and Chapter three is devoted to the first law for control volume or open (flow) systems. The second law of thermodynamics for closed systems is presented in Chapter four. Chapter five is devoted to the second law for open systems with applications. Thermodynamics of compressible and incompressible flows in ducts and pipes is covered in depth in Chapter six. Chapter seven is devoted to estimation of volumetric and thermodynamic properties of fluids. Chapters eight to ten provide in-depth coverage of power cycles, internal combustion engines, and refrigeration cycles. Chapters eleven and twelve are devoted to vapor-liquid phase equilibrium of ideal and non-ideal systems. Chapter thirteen provides in-depth coverage of chemical reaction equilibrium. Work and entropy analysis of closed and open systems is presented along with the Gouy-Stodola theorem in Chapter fourteen. Due to the importance of exergy and exergy analysis in many practical applications, the last four chapters (Chapters fifteen to eighteen) are fully devoted to this topic. The available textbooks in thermodynamics rarely provide satisfactory coverage of exergy and exergy analysis of processes.

This book and the accompanying computer software are intended to enhance and streamline the study of the field of thermodynamics. The package is design and problem-solving oriented. Released from the drain of repetitive and iterative hand calculation, students can be led to a far wider and deeper study than has been possible previously.

Energy and the environment are inextricably linked to the economy. Thermodynamics therefore seems to be a privileged tool in overcoming the constraints associated with optimization.This first volume reports on an original, contemporary approach leading to optimal solutions in the form of trend models, proving the existence of solutions which can then be refined in a more complete and sophisticated manner.The validation of the proposed methodology is realized through real-life examples (engines, heat pumps, refrigeration systems, etc.). However, the more fundamental aspects linked to the dynamics of the transfer and conversion of energy and matter are also explored, as well as the evolution which characterizes the second law of thermodynamics.This book presents recent advances, often still undergoing research, as well as structured exercises, and is therefore aimed at both students and researchers in the field of energetics. - It proposes a view of the evolution of knowledge regarding the thermodynamics modeling of systems and processes - It shows results and also the existence of optimum all and along the development - It focuses on multidisciplinary approach that characterizes thermodynamics

Every non-fiction book has an objective or mission. The mission of this book is to give the reader an overview of the important principles, concepts and analytical techniques pertaining to thermodynamics, written in a fashion that makes this abstract and complex subject relatively easy to comprehend. The audience this text speaks to includes engineers, professionals with science and math backgrounds, energy professionals, and technicians. The content is presented in a way which also allows many non-engineering professionals to follow the material and glean useful knowledge. For energy engineers who have been away from direct engineering practice for a while, this book will serve as a quick and effective refresher. Thermodynamics topics such as enthalpy, entropy, latent heat, sensible heat, heat of fusion, and heat of sublimation are explained and illustrated in detail. Also covered are phases of substances, the law of conservation of energy, SFEE, the first and second laws of thermodynamics, ideal gas laws, and pertinent formulas. The author examines various thermodynamic processes, as well as heat and power cycles such as Rankine and Carnot. Case studies are used to illustrate various thermodynamics principles, and each chapter concludes with a list of questions or problems for self-assessment, with answers provided at the end of the book.

The vapor compression cycle (VCC) underpins the vast majority of refrigeration systems throughout the world. Most undergraduate thermodynamics courses cover the VCC, albeit in a cursory fashion. This book is designed to offer an in-depth look at the analysis, design and operation of large-scale industrial ammonia-based refrigeration systems. An important feature of this work is a treatment of computer-aided analysis using CoolProp, an open source resource for evaluating thermodynamic properties. CoolProp can be incorporated into a large number of common computational platforms including Microsfot Excel, Python, and Matlab, all of which are covered in this book.

This book addresses the concept and applications of Finite Time Thermodynamics to various thermal energy conversion systems including heat engines, heat pumps, and refrigeration and air-conditioning systems. The book is the first of its kind, presenting detailed analytical formulations for the design and optimisation of various power producing and cooling cycles including but not limited to: • Vapour power cycles • Gas power cycles • Vapour compression cycles • Vapour absorption cycles • Rankine cycle coupled refrigeration systems Further, the book addresses the thermoeconomic analysis for the optimisation of thermal cycles, an important field of study in the present age and which is characterised by multi-objective optimization regarding energy, ecology, the environment and economics. Lastly, the book provides the readers with key techniques associated with Finite Time Thermodynamics, allowing them to understand the relevance of irreversibilities associated with real processes and the scientific reasons for deviations from ideal performance. The book is aimed at a broad readership, and offers a valuable reference book for graduate students, scholars and professionals working in the areas of thermal science and engineering.