Magnetization M The Equivalent Surface Current Density The Equivalent Volume Current Denisity Calculation of Magnetic Fields in Material Magnetic Field Intensity Ampere's Circuit Law Magnetic Susceptibility, Permeability Magnetization Curve Hysterisis

Forces on a Wire Carrying a Current in a Magnetic Field Magnetic Pressure Magnetic Energy Denisity Magnetic Forces btwn Two Electric Currents Magnetic Forces Within an Isolated Circuit

Mutual Induction M Induced Electriomotance in Terms of Mutual Inductance Self-Inductance L Coefficient of Coupling Transients in RC Circuits

Motional Electromtance Faraday Induction Law for V B Fields Lenz' law Faraday Induction Law for Time- Dependenct B Flux Linkage E in Terms of and A

Experiments show that a charged particle moving in a magnetic field experiences a force F=Q(v×B) Q-the charge of the particle, v-the velocity of the particle(vector), B-the magnetic field. there is also an electric field, the force acting on the particle is F=Q(E+v×B)

Object: to describe the fieds generated by electric charges and currents Mathematical tools A field is a function describing a quantity at all points in space

§4.1 能量——另一个守恒量 §4.2 力的元功·用线积分表示功 §4.3 质点和质点系动能定理 §4.4 保守力与非保守力·势能 §4.5 功能原理和机械能守恒定律 §4.6 对心碰撞·非对心碰撞

中国科学院物理学院普通物理学课程：《力学》教程PPT课件 第十章 波动和声（蒋小平）

狭义相对论的基本假设 同时性的相对性 洛仑兹变换式 运动时钟变慢和长度缩短 洛仑兹速度变换 相对论性质量和动量 相对论性能量 相对论性力和加速度间关系

§6.1 开普勒定律 §6.2 万有引力定律·引力质量与惯性质量 §6.3 引力势能及三种宇宙速度