PHYS 341 Syllabus

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    Syllabus

    PHYS 341 and BMME 341 Fall Semester, 2014

    Instructor: Professor Yue WuOffice Hours: 4:00 pm - 5:00 pm, MWFOffice: Chapman Hall, Room 341

    Phone: (919) 962-0307

    E-mail: [email protected]

    Lectures: MWF 3:00 p.m.-3:50 p.m.

    Lecture Room: Phillips 265

    Text Book: An Introduction to Thermal Physics, by Daniel V. Schroeder, 1steditionFinal Exam: Saturday at 4 pm, December 6, 2014.

    Course Description

    This class presents the basic concepts of thermodynamics and its applications. In

    addition, statistical mechanics will also be taught at an introductory level. The emphasis

    is on using thermodynamics and statistical mechanics to understand a broad range ofproblems in physics and physical chemistry with adequate mathematical tools.

    Work Expected

    1. HomeworkHomework will be assigned each Friday and is due the next Friday in class.

    Homework grading: Each question is assigned 10 points.

    2. Two midterm exams3. Final exam

    Grading

    The final grade will be weighted according to:

    Homework: 30%

    Two midterm exams: 30%

    Final exam: 40%

    SchedulesDate Chapters Topics

    Aug 20 1.1, 1.2, Thermal equilibrium, the ideal gas,

    Aug 22 1.3, 1.4 Equipartition of energy, heat and work

    Aug 25 1.5, 1.6 Compression work, heat capacitiesAug 27 1.7 Rates of processes

    Aug 29 2.1, 2.2 Two-state systems, Einstein model of a solid

    Sept 1 No class, Labor Day

    Sept 3 2.3, 2.4 Interacting systems, large systems

    Sept 5 2.5 The ideal gas

    Sept 8 2.6 Entropy

    Sept 10 3.1 Temperature

    Sept 12 3.2 Entropy and heat

    Sept 15 3.3 Paramagnetism

    Sept 17 3.4 Mechanical equilibrium and pressure

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    Sept 19 3.5, 3.6 Diffusive equilibrium and chemical potential, summary

    Sept 22 4.1 Heat engines

    Sept 24 4.2 Refrigerators

    Sept 26 4.3, 4.4 Real heat engines, real refrigeratorsSept 29 Midterm I Covered materials: Chapters 1, 2, and 3.

    Oct 1 5.1 Free energy and available work

    Oct 3 5.1 Free energy and available work

    Oct 6 5.2 Free energy as a force toward equilibrium

    Oct 8 5.3 Phase transformation of pure substances

    Oct 10 5.3 Phase transformation of pure substances

    Oct 13 5.4 Phase transformations of mixtures

    Oct 15 5.5 Dilute solutions

    Oct 17 No class, fall Break

    Oct 20 5.6 Chemical equilibrium

    Oct 22 6.1 The Boltzmann factorOct 24 6.2 Average values

    Oct 27 6.3, 6.4 The equipartition theorem, the Maxwell speed distribution

    Oct 29 6.5 Partition functions and free energy

    Oct 31 6.6 Partition functions for composite systems

    Nov 3 Midterm II Covered materials: Chapters 4, 5, and 6.1, 6.2.

    Nov 5 6.7 Ideal gas revisited

    Nov 7 7.1 The Gibbs factor

    Nov 10 7.2 Bosons and Fermions

    Nov 12 7.3 Degenerate Fermi gases

    Nov 14 7.4 Blackbody radiation

    Nov 17 7.4 Blackbody radiation

    Nov 19 7.5 Debye theory of solidsNov 21 7.6 Bose-Einstein condensation

    Nov 24 8.1 Weakly interacting gases

    Nov 26 Thanksgiving Break

    Nov 28 No class

    Dec 1 8.2 The Ising model of a ferromagnet

    Dec 3 Review

    Dec 6 Final Exam 4 pm, cumulative