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Thermal Physics (Fall 2006) Physics 431 (831)
Mondays, Wednesdays and Fridays, Instructor: Christian Binek 203 Phone: 2-5231 E-mail: cbinek2@unl.edu Office Hours: drop in or make an appointment
Brief overview: This course gives an introduction into the field of thermodynamics. Thermodynamics started as the science dealing with the transformation of heat into mechanical work and vice versa. However, as the subject developed, its scope became much broader. Today, thermodynamics is the science concerned with the macroscopic or large-scale properties of matter in general. The thermodynamic relations, for instance the relation between the heat capacity measured at constant pressure and the heat capacity determined at constant volume, are derived from a small number of principles which are generalizations of experimental experiences. The powerful methods studied in this course have broad applications in varies fields of science and engineering ranging from the design of internal combustion engines to the understanding of basic material properties. The results of thermodynamics are fundamental and probably more widely used throughout science and engineering than any other theory. A rough outline of what we intend to cover this semester:
3.2 Application of the Thermodynamic Notation 3.3 The Simple Solid 3.4 Thermal Expansion and Bulk Modulus 3.5 Relationships between Partial Derivatives
4.2 Change in Temperature with Elevation 4.3 Cyclic Processes
6.1 Kelvin and Clausius Statements 6.2 Carnotīs Theorem 6.4 Differentials 6.5 Entropy
Classes begin 21 August Last day of classes 8 December Labor Day (student and staff holiday) 5 September Fall Semester Break (student holiday) 16-17 October Student holiday 22 November Thanksgiving Vacation 23-26 November Homework: Homework is due a week from the day of assignment
Exams: Midterm Test1 4 October Midterm Test2 8 November Final Exam
14 December (
Final grade: Homework 30% Midterm Test1 20% Midterm Test2 20% Final Exam 30% Text: Robert J. Hardy,
Fundamental Thermal Physics ( Further references: F. W. Sears and G.L. Salinger Thermodynamics, Kinetic Theory, and Statistical Thermodynamics (Massachusetts, Addison-Wesley 1975)
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