Theoretical Mechanics PHYS3108

发布时间:2015-11-18浏览次数:1428

Syllabus for Theoretical Mechanics

PHYS3108

Current Lecturer

Prof. Zhouzhou SUN   Email: phzzsun@suda.edu.cn

Course Time

4th Semester

Lectures: 3 sessions/week, 50min /session. 18 weeks.

Course Description

Theoretical Mechanics is an advanced course to mechanics in macro world. Using calculus tools, including solving ordinary differential equations, classical mechanics teaches the students the general theories of Newtonian mechanics and analytical mechanics. The topics include: Newtonian mechanics of one particle and particles, Analytical mechanics including Lagrange form and Hamilton’s form, Central force problem, Non-inertial rotational reference system, Rigid body motion and Oscillating systems, etc.

Prerequisites

General Physics I (PHYS1025); Method of Mathematical Physics (PHYS3103)

Textbooks

Analytical Mechanics (7ed), by G.R. Fowles and G.L. Cassiday, (Brooks/Cole, 2005).

Lectures on Classic Mechanics, by X.F. Zhong, (CUST, 2011)钟学富,《经典力学讲义》,(中科大出版社,2011.

Reference books

周衍柏,《理论力学教程》(第三版),高教社,2009)。

Classical Mechanics (3rd), by H. Goldstein, et al., (高教社,2005).

Mechanics, by L.D. Landau and E.M. Lifshitz, (世界图书出版公司,1999).

Main contents

Week

Teaching Contents

Sessions

Objectives

1

Introduction; Mathematics preparation (I)

3

vectors, vector products

2

Mathematics preparation (II)

3

coordinates system; velocity, acceleration, orbit

3

Newtonian mechanics of one particle

3

Newton's equations, exercise

4

Position, velocity-dependent force

3

kinetic and potential energy, exercise

5

Analytical mechanics; Generalized coordinate, velocity

3

concepts in analytical mechanics: constrains, generalized coordinate

6

Lagrange's equations

3

derivation of Lagrange's equations, exercise

7

Hamilton's equations

3

derivation of Hamilton's equations, exercise

8

Gravitation, central force problem

3

central force problem, exercise

9

Non-inertial reference system, rotating coordinate system

3

non-inertial reference system, inertial force, rotating coordinate system

10

Midterm Exam

3

midterm exam

11

Mechanics of particles; Conservation laws

3

particles mechanics; momentum, angular momentum, energy

12

Two-body problem, center of mass

3

two-body problem, center of mass motion, exercise

13

Rigid body; Angular velocity

3

concepts of rigid body, angular velocity

14

Euler angles; Moment of inertia

3

Euler angles, moment of inertia

15

Rotation around fixed axes; Planar motion

3

rotation around fixed axes, planar motion, exercise

16

Rotation around fixed point

3

rotation around fixed point, Euler equations, exercise

17

Oscillating systems

3

multiple atoms oscillations, normal coordinates

18

Review, Exercise

3

general review for final exam

Marking Scheme:

Attendance

Homework & Quiz

Midterm

Final exam

10%

20%

30%

40%