Type A
|
Code |
Competences Specific | | A1.1 |
Consistently apply knowledge of basic, scientific and technological subjects pertaining to engineering |
| A4.1 |
Knowledge of applied thermodynamics and heat transfer. Fundamental laws and their application to engineering problems (RI1) |
Type B
|
Code |
Competences Transversal |
Type C
|
Code |
Competences Nuclear |
Type A
|
Code |
Learning outcomes |
| A1.1 |
Aplica correctament la termodinàmica i la transmissió de calor, i la seva aplicació a la resolució de problemes d'enginyeria.
| | A4.1 |
Aplica, amb criteri, una equació d'estat apropiada per representar el comportament PVT de gasos a alta pressió i/o a líquids.
Calcula canvis d'energia interna, entalpía i entropia per a gasos en condicions de comportament no ideal mitjançant l'ús de propietats residuals.
Descriu les condicions d'equilibri mitjançant el potencial químic o fugacitat i la seva relació amb altres propietats termodinàmiques.
Interpreta les diferents formes (P-x-y, T-x-y, x-y, P-T, H-P, H-S, etc.) de representar el comportament de l'equilibri de fases en mescles o de les propietats termodinàmiques de fluids purs.
Determina les condicions d'equilibri de fases utilitzant, si fa falta, models d'estimació de coeficients d'activitat i de fugacitat o l'ús d'equacions d'estat, elegit amb criteri.
Calcula sistemes en equilibri químic en funció de la temperatura, la pressió i la composició, amb reacció múltiple o única, tant en fase gas com a líquida.
|
Type B
|
Code |
Learning outcomes |
Type C
|
Code |
Learning outcomes |
Topic |
Sub-topic |
1. Revision of concepts |
What is Thermodynamics? Applications. First principle. Second principle. |
2. The PVT behaviour of fluids |
The phase rule. Projection in two dimensions of PVT diagrams. Need for PVT diagrams in engineering practice. |
3. Equations of state |
The ideal gas. Real gases. Virial equations of state.
Cubic equations of state. Other equations of state. |
4. The theorem of corresponding states |
Definition and applications. Pitzer's acentric factor. Generalized correlations. |
5. Estimation of thermodynamic properties |
The fundamental equation of Thermodynamics. The Maxwell's equations. Calculation of thermodynamic properties. Residual properties. |
6. Equilibrium |
Equilibrium criteria. The chemical potential. Application of the equilibrium criteria. Phase diagrams of pure substances. The Clapeyron equation. |
7. Thermodynamic properties in multicomponent systems |
The phase rule revisited. Binary phase diagrams. Interpretation. |
8. Vapour-liquid equilibrium in binary mixtures |
Fugacity. Calculation of fugacity for pure substances. Calculation of fugacity in mixtures. Ideal and non-ideal solutions: Raoult's law revisited. Activity coefficients and their calculation. The Henry's law. |
9. Phase equilibrium |
Systematic calculation of vapour-liquid equilibrium. Azeotropes. High pressure vapour-liquid equilibrium. Application to distillation. Liquid-liquid equilibrium: ternary mixtures. Liquid-solid and gas-solid equilibrium: adsorption. |
10. Chemical equilibrium |
Stoichiometry and progress of the reaction (conversion). Equilibrium conditions. The equilibrium constant. Gas phase reaction. Liquid phase reaction. Heterogeneous reactions. Multiple reactions. |
Methodologies :: Tests |
|
Competences |
(*) Class hours
|
Hours outside the classroom
|
(**) Total hours |
Introductory activities |
|
1 |
1 |
2 |
Lecture |
|
32 |
54 |
86 |
Problem solving, exercises in the classroom |
|
12 |
26 |
38 |
Assignments |
|
3 |
12 |
15 |
Personal attention |
|
1 |
1 |
2 |
|
Short-answer objective tests |
|
7 |
0 |
7 |
|
(*) On e-learning, hours of virtual attendance of the teacher. (**) The information in the planning table is for guidance only and does not take into account the heterogeneity of the students. |
Methodologies
|
Description |
Introductory activities |
Presentation of the content and organization of the subject, as well as its connection with previous and subsequent subjects. Review of the material available in the Moodle space. |
Lecture |
Combination of lectures and case study through the introduction of the basic concepts, the discussion of examples and the completion of exercises in the classroom. Group or individual discussion meetings are expected to clarify concepts or methodologies. The student's dedication to study assignments is included to deepen the understanding of the concepts provided. |
Problem solving, exercises in the classroom |
Sets of problems solved by the students, individually or in groups, and supervised by the teaching staff. This includes the individual work of the student derived from this activity. On conveniently communicated dates, problems made in groups will be collected. |
Assignments |
Resolution of a practical case of application of Thermodynamics for the design of processes in the chemical process industry. Working in small groups, the concepts developed in the subject must be applied with criteria and in a real context. |
Personal attention |
Meetings, individual or group, during attention hours to clarify specific aspects of the concepts provided. |
Description |
Meetings, outside the classroom, individual or in small groups in order to discuss specific issues or problems. The attention hours will be communicated conveniently and the contacting channels informed in the Moodle space.
In the same way, a virtual room will be available to carry out meetings by remote videoconference with the same schedule. The link will be conveniently communicated in the Moodle space. |
Methodologies |
Competences
|
Description |
Weight |
|
|
|
|
Problem solving, exercises in the classroom |
|
1. Delivery of exercises carried out in group, in the classroom, and collected periodically at the end of the session. 12 deliveries will be requested. You can discard up to 25% of deliveries to calculate the global mark. |
5% |
Assignments |
|
2. Open assignment completed in groups. It will solve a practical situation of application of thermodynamic concepts in a real context. |
15% |
Short-answer objective tests |
|
Different tests participate at different times:
3. Resolution of a problem, similar to those available in the collections, for a time limited to one hour. It will be done twice, without previous notice. (2.5% + 2.5%)
4. Two mid-term individual tests through short conceptual questions and application problems about the contents provided so far. (15% + 20%)
5. Individual test at the end of the semester that includes all the contents of the subject. It will be composed of a part dedicated to concepts and another to practical application. (40%) |
80% |
Others |
|
|
|
|
Other comments and second exam session |
This subject presents specific pass conditions. It is a necessary but not sufficient condition to pass the evaluation, regardless of any other consideration, to be able to interpret and generate binary phase equilibrium diagrams. In the final exam (5) or the 2nd call exam, the exercises used used to verify this condition will be indicated. In the 2nd call, the contribution of the continuous evaluation part related to the resolution of problems, that is to say, sections 1 and 3 of the above description, will be maintained for a total of 10%. Therefore, the 2nd call exam, of a format similar to the description made in section 5, will represent 90% of the final mark. During the tests, you can not have activated mobiles and it is completely prohibited to handle them during the test. In any test, you can not use any external communication channel or you can connect to the network to do something that is not strictly allowed and informed in the exam. Non accomplishment of these two previous rules entails the immediate suspension of the subject, regardless of the disciplinary consequences that may derive from. Additionally, complementary instructions will be provided in each test, equally binding. |
Basic |
SMITH, S.; VAN NESS, H.C., ABBOTT M.M., Introducción a la Termodinámica en Ingeniería Química, la més recent, McGraw-Hill
|
|
Complementary |
KYLE, B. J., Chemical and Process Thermodynamics, la més recent, Prentice Hall
ELLIOT, J.R.; LIRA, C.T., Introductory Chemical Engineering Thermodynamics, la més recent, Prentice Hall PTR
ATKINS, P. W., Physical Chemistry, la més recent, Oxford University Press
Don W. Green (ed.), Perry's Chemical Engineers' Handbook, la més recent, McGraw-Hill
POLING, B.E.; PRAUSNITZ, J.M.; O'CONNELL, J.P., The properties of gases and liquids, la més recent, McGraw-Hill
|
In the Moodle space of the subject, you will find more information about documentation of regular use in this area. |
Subjects that continue the syllabus |
DESIGN OF HEAT EXCHANGE OPERATIONS/20204112 | TECHNICAL THERMODYNAMICS/20204115 | UNIT OPERATIONS LABORATORY/20204121 | DESIGN OF SEPARATION OPERATIONS/20204122 |
|
Subjects that are recommended to be taken simultaneously |
CHEMICAL THERMODYNAMICS AND KINETICS LABORATORY/20204120 | CHEMICAL PROCESSES AND PRODUCTS/20204117 | MATHEMATICS II/20204006 | MATHEMATICS III/20204007 | CHEMICAL KINETICS AND REACTOR DESIGN/20204124 |
|
Subjects that it is recommended to have taken before |
FUNDAMENTALS OF PROCESS ENGINEERING/20204116 | COMPUTING IN PROCESS ENGINEERING/20204002 | PHYSICAL CHEMISTRY/20204004 | MATHEMATICS I/20204005 |
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(*)The teaching guide is the document in which the URV publishes the information about all its courses. It is a public document and cannot be modified. Only in exceptional cases can it be revised by the competent agent or duly revised so that it is in line with current legislation. |
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