| Title: | Thermodynamics and Energy Conversion |
| Authors: | Struchtrup, Henning |
| Keywords: | Thermodynamics Energy Conversion |
| Issue Date: | 2014 |
| Publisher: | Springer |
| Abstract: | This textbook grew out of lecture notes for the thermodynamics courses offered in the Department of Mechanical Engineering at the University of Victoria. Writing my own notes forced me to thoroughly consider how, in my subjective view, engineering thermodynamics should be taught. At the same time I aimed for a concise presentation, with the material of three courses delivered on about 600 pages. 1 My hope in publishing this book is that students of thermodynamics might find the chosen approach accessible, and maybe illuminating, and discover thermodynamics and its interesting applications for themselves. Probably the biggest difference to standard texts is when and how the second law of thermodynamics and its central quantity, the entropy, are in- troduced. The second law describes irreversible processes like friction and heat transfer, which are related to a loss in work. For instance, work that is needed to overcome friction in a generator cannot be converted into elec- tricity, hence there is a loss. Accordingly, it should be one of the main goals of a thermal engineer to reduce irreversibility as much as possible. Indeed, the desire to understand and quantify irreversible losses is one of the central themes of the present treatment, it is touched upon in almost all chapters. |
| Description: | As soon as the thermodynamic laws are stated we are in calmer waters. The discussion of property relations, processes in closed and open systems, thermodynamic cycles, mixtures and so on follows established practice, only, perhaps, with the additional emphasis on irreversibility and loss. Some el- ements that might not be found in other books on engineering thermody- namics concern the microscopic definition of entropy, the afore mentioned emphasis on thermodynamic losses, and the detailed discussion of a number of advanced energy conversion systems such as Atkinson engine, solar tower (updraft power plant), turbo-fan air engine, ramjet and scramjet, compressed air energy storage, osmotic power plants, carbon sequestration, phase and chemical equilibrium, or fuel cells. The principles of non-equilibrium thermo- dynamics are used to derive transport laws such as Newton’s law of cooling, Darcy’s law for flow through porous media, and activation losses in fuel cells. |
| URI: | http://localhost:8080/xmlui/handle/123456789/183 |
| ISBN: | 978-3-662-43715-5 |
| Appears in Collections: | ARTS & SCIENCE |
| File | Description | Size | Format | |
|---|---|---|---|---|
| 2014_Book_ThermodynamicsAndEnergyConvers.pdf | 9.11 MB | Adobe PDF | View/Open |
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