Ch 11: Sound Waves 2

Doppler Effect - the apparent change in the pitch or frequency of a sound when there is relative motion between the source & the observer

http://hyperphysics.phy-astr.gsu.edu/hbase/sound/dopp.html

Ch 11: Sound Wave 1

Application of Stationary (Standing) Waves

1. Stretched string

2. Air columns

Ch10: Mechanical Waves 2

Standing Waves

Ch10: Mechanical Waves 1

Ch 9: Simple Harmonic Motion

• Displacement, velocity & acceleration for SHM

Ch 6: Circular Motion 3/ VERTICAL circular motion

1.

2. 

3.

Ch 6: Circular Motion 2/ HORIZONTAL circular motion

1

2

3

Ch 6: Circular Motion 1

1. Development

2. Overview// Cases:

Forces 3

4. Object on an incline plane
4.1.     Object on incline plane experiences 3 forces: Normal force (N), gravitational force (W) and friction (f)

4.2 FBD

4.3 Transform

4.4 Forces in equilibrium

SF_nett = 0  Þ SF_x = 0

Þ SF_y = 0

Forces 2

3. Newton's Law

3.1 Newton's 1st Law is about object in equilibrium

- Object at rest will stay at rest, or continue to move with constant velocity in a straight line unless it is acted upon by an external force

Forces 1

1. Type of forces

2. FBD, example 1

- Below is a flying jet

- Label all the forces that act on it

- Draw FBD

Momentum & Impulse 2

3.2 Conservation of linear momentum

1. States

• “In an isolated (closed) system, the total momentum of that system is constant.”

OR

• “When the net external force on a system is zero, the total momentum of that system is constant.”, Sp = constant,

OR

•  The total of initial momentum = the total of final momentum

Sp_i = Sp_f

2. In 2-D Þ Sp_ix = Sp_fx
                 Þ Sp_iy = Sp_fy

3. Type of collission

# Use to determine either it's elastic or inelastic collision

Momentum & Impulse 1

3.1 Momentum & impulse

1.     Impulse, J = FDt

2.     Change in momentum: Dp = m (v₂ – v₁)

 3.     Impulse-Momentum Theorem

The impulse of the force F acting on a particle equals the change in the momentum of the particle caused by that force

J = FDt = m(v₂ – v₁)

Basic VS Derived quantities

Basic quantity

SI base unit Base quantity Name Symbol length meter m mass kilogram       kg time second s electric current ampere A thermodynamic temperature       kelvin K amount of substance mole mol luminous intensity candela cd

Derived quantity - Combination of badic quantities

Other Units
velocity	meter per second, m/s
acceleration	meter per second squared,
force	Newton,
pressure	Pascal,
energy	Joule,
power	Watt,

http://physics.nist.gov/cuu/Units/units.html

SF016_Physics for Matriculation KPM

 Syllabus for SF016 2015/ 2016

1.       PHYSICAL QUANTITIES AND MEASUREMENTS (3 HOURS)

1.0    Physical Quantities & Units

1.1    Scalars & Vectors

2.       KINEMATICS OF LINEAR MOTION (5 HOURS)

2.1    Linear Motion

2.2    Uniformly Accelerated Motion

2.3    Free Falling Body

2.4    Projectile Motion

3.       MOMENTUM AND IMPULSE (2 HOURS)

3.1    Momentum & Impulse

3.2    Conservation of Linear Momentum

4.       FORCES (5 HOURS)

4.1    Basic of Forces & Free Body Diagram

4.2    Newton's Laws of Motion

5.       WORK, ENERGY AND POWER (3 HOURS)

5.1    Work

5.2    Energy & Conservation of Energy

5.3    Power & Mechanical Efficiency

6.       CIRCULAR MOTION (3 HOURS)

6.1    Uniform Circular Motion

6.2    Centripetal Force

7.       GRAVITATION (2 HOURS)

7.1    Gravitational Force & Field Strength

7.2    Gravitational Potential

7.3    Satellite Motion In a Circular Orbit

8.       ROTATION OF A RIGID BODY (8 HOURS)

8.1    Equilibrium of a Uniform Rigid Body

8.2    Equilibrium of a Uniform Rigid Body

8.3    Rotational Kinematics

8.4    Rotational Dynamics

8.5    Work And Energy of Rotational Motion

8.6    Conservation of Angular Momentum

9.       SIMPLE HARMONIC MOTION ( 5 HOURS)

9.1    Simple Harmonic Motion (SHM)

9.2    Kinematics of SHM

9.3    Kinematics of SHM

9.4    Graphs of  Simple Harmonic Motion

9.5    Period of SHM

10.   MECHANICAL WAVES ( 3 HOURS)

10.1   Properties of Waves

10.2   Superposition of Waves

11.   SOUND WAVE (4 HOURS)

11.1   Intensity & Beats

11.2   Applications of Stationary Waves

11.3   Doppler Effect

12.   DEFORMATION OF SOLIDS (2 HOURS)

12.1   Stress and Strain

12.2   Young’s modulus

13.   HEAT (2 HOURS)

13.1   Thermal Conduction

13.2   Thermal Expansion

14.   KINETIC THEORY OF GASSES (3 HOURS)

14.1   Ideal Gas equations

14.2   Kinetic Theory of Gasses

14.3    Molecular Kinetic Energy & Internal Energy

15.   THERMODYNAMICS (4 HOURS)

15.1   First Law Of Thermodynamics

15.2   Thermodynamic Processes

15.3   Thermodynamics Work