Showing posts with label Rotational Kinematics. Show all posts
Showing posts with label Rotational Kinematics. Show all posts

Thursday, 21 May 2026

Week 5 Term 2 2026 Rotational Motion (Kinematics)

 Homework:

C.O.M. & 2D momentum

  • Ex 4A, p.100-102, C.O.M.
  • Ex 4B, p.108-112, Momentum & C.O.M. in 1D
  • Ex 4C, p.116-122, Momentum & C.O.M. in 2D
  • Act 7A, p.87-88 Motion, Force and Energy
  • Act 7B, p.91-92 Impulse
  • Act 7C, p.95-96 Conservation of Momentum
  • Act 7D, p.100-101 C.O.M.

Circular Motion
  • Act 8A, p.120-121 Horizontal Circles and Banked Corners
  • Act 8B, p.124-125 Vertical Circles
  • Act 8C, p.129 Sattelites
  • Ex 4D, p.128-131, Banked Corners (Circular Motion)
  • Ex 4E, p.138-142, Vertical Circles
  • Ex 4F, p.145-147, Gravity
  • Ex 4G, p.153-156 Satallites
Rotational Motion
  • Act 9A, p. 128-129, Angular Motion
  • Ex 4H, p.160-162, Rotational Kinematics
Radians

Radian Measure is used so that we can easily calculate an arc length, d (m), given an angle, š›‰ (Rad) and the radius, r (m).

d = rš›‰

This in turn allows us to relate velocity, v (ms-1) to angular velocity ⍵ (rads-1), in the same way. Note that Angular Velocity may also be called Angular Frequency.

v = r⍵, 

also ⍵ = 2š…f

 This also allows us to relate acceleration, a (ms-2), to angular acceleration, Ī± (rads-2), in the same way.

a = rα

The rotational kinematics work just like the translational kinematic equations when there is a constant acceleration.


Rotational Kinematics Review

Rotational Kinematics



Rotational Kinematics Physics: Problems, Basic Introduction, Equations & Formulas



Rotational Motion Physics, Basic Rotational Motion Physics: Introduction, 

Angular Velocity & Tangential Acceleration






Thursday, 29 May 2025

Week 5 Term 2 2025 Rotational Kinematics

 Homework:

C.O.M. & 2D momentum

  • Ex 4A, p.100-102, C.O.M.
  • Ex 4B, p.108-112, Momentum & C.O.M. in 1D
  • Ex 4C, p.116-122, Momentum & C.O.M. in 2D
  • Act 7A, p.87-88 Motion, Force and Energy
  • Act 7B, p.91-92 Impulse
  • Act 7C, p.95-96 Conservation of Momentum
  • Act 7D, p.100-101 C.O.M.

Circular Motion
  • Act 8A, p.120-121 Horizontal Circles and Banked Corners
  • Act 8B, p.124-125 Vertical Circles
  • Act 8C, p.129 Sattelites
  • Ex 4D, p.128-131, Banked Corners (Circular Motion)
  • Ex 4E, p.138-142, Vertical Circles
  • Ex 4F, p.145-147, Gravity
  • Ex 4G, p.153-156 Satallites

Rotational Motion
  • Act 9A, p. 128-129, Angular Motion
  • Ex 4H, p.160-162, Rotational Kinematics

Radians

Radian Measure is used so that we can easily calculate an arc length, d (m), given an angle, š›‰ (Rad) and the radius, r (m).

d = rš›‰

This in turn allows us to relate velocity, v (ms-1) to angular velocity ⍵ (rads-1), in the same way. Note that Angular Velocity may also be called Angular Frequency.

v = r⍵, 

also ⍵ = 2š…f

 This also allows us to relate acceleration, a (ms-2), to angular acceleration, Ī± (rads-2), in the same way.

a = rα

The rotational kinematics work just like the translational kinematic equations when there is a constant acceleration.


Rotational Kinematics Review

Rotational Kinematics



Rotational Kinematics Physics: Problems, Basic Introduction, Equations & Formulas



Rotational Motion Physics, Basic Rotational Motion Physics: Introduction, 

Angular Velocity & Tangential Acceleration

Sunday, 5 May 2024

Week 2 Term II 2024 Rotaional Motion

  Homework:

2D Momentum and Centre of Mass C.O.M.
  • Ex 4A, p.100-102, C.O.M.
  • Ex 4B, p.108-112, Momentum & C.O.M. in 1D
  • Ex 4C, p.116-122, Momentum & C.O.M. in 2D
  • Act 7A, p.87-88 Motion, Force and Energy
  • Act 7B, p.91-92 Impulse
  • Act 7C, p.95-96 Conservation of Momentum
  • Act 7D, p.100-101 C.O.M.

Circular Motion
  • Act 8A, p.120-121 Horizontal Circles and Banked Corners
  • Act 8B, p.124-125 Vertical Circles
  • Act 8C, p.129 Sattelites
  • Ex 4D, p.128-131, Banked Corners (Circular Motion)
  • Ex 4E, p.138-142, Vertical Circles
  • Ex 4F, p.145-147, Gravity
  • Ex 4G, p.153-156 Satallites

Rotational Motion
  • Act 9A, p. 128-129, Angular Motion
  • Ex 4H, p.160-162, Rotational Kinematics

Radians

Radian Measure is used so that we can easily calculate an arc length, d (m), given an angle, š›‰ (Rad) and the radius, r (m).

d = rš›‰

This in turn allows us to relate velocity, v (ms-1) to angular velocity ⍵ (rads-1), in the same way. Note that Angular Velocity may also be called Angular Frequency.

v = r⍵, 

also ⍵ = 2š…f

 This also allows us to relate acceleration, a (ms-2), to angular acceleration, Ī± (rads-2), in the same way.

a = rα

The rotational kinematics work just like the translational kinematic equations when there is a constant acceleration.


Rotational Kinematics Review

Rotational Kinematics



Rotational Kinematics Physics: Problems, Basic Introduction, Equations & Formulas



Rotational Motion Physics, Basic Rotational Motion Physics: Introduction, 

Angular Velocity & Tangential Acceleration

Monday, 5 June 2023

Week 6 Term 2 2023

 Homework:


  • Ex 4A, p.100-102, C.O.M.
  • Ex 4B, p.108-112, Momentum & C.O.M. in 1D
  • Ex 4C, p.116-122, Momentum & C.O.M. in 2D
  • Act 7A, p.87-88 Motion, Force and Energy
  • Act 7B, p.91-92 Impulse
  • Act 7C, p.95-96 Conservation of Momentum
  • Act 7D, p.100-101 C.O.M.
  • Act 8A, p.120-121 Horizontal Circles and Banked Corners
  • Act 8B, p.124-125 Vertical Circles
  • Act 8C, p.129 Sattelites
  • Ex 4D, p.128-131, Banked Corners (Circular Motion)
  • Ex 4E, p.138-142, Vertical Circles
  • Ex 4F, p.145-147, Gravity
  • Ex 4G, p.153-156 Satallites
  • Act 9A, p. 128-129, Angular Motion
  • Act 9B, p. 133-135, Torque - Angular Force
  • Act 9C, p. 128-129, Angular Momentum
  • Ex 4H, p.160-162, Rotational Kinematics
  • Ex 4I, P.167-171, Rotational Force & Momentum
  • Ex 4J, p.175-177, Rotational Kinetic Energy
Radians

Radian Measure is used so that we can easily calculate an arc length, d (m), given an angle, š›‰ (Rad) and the radius, r (m).

d = rš›‰

This in turn allows us to relate velocity, v (ms-1) to angular velocity ⍵ (rads-1), in the same way.

v = r⍵, 

also ⍵ = 2š…f

 This also allows us to relate acceleration, a (ms-2), to angular acceleration, Ī± (rads-2), in the same way.

a = rα

The rotational kinematics work just like the translational kinematic equations when there is a constant acceleration.


Rotational Kinematics Review

Rotational Kinematics



Rotational Kinematics Physics: Problems, Basic Introduction, Equations & Formulas



Rotational Motion Physics, Basic Rotational Motion Physics: Introduction, 

Angular Velocity & Tangential Acceleration




Rotational Inertia



Rotational Inertia

Torque


Angular Momentum

Angular Momentum - Sixty Symbols

Gyroscopic Precession



Slow Motion Flipping Cat Physics



Counter Steering Physics




The Bizarre Behavior of Rotating Bodies, Explained


Ellipzoids and the Bizarre Behavior of Rotating Bodies


Sunday, 29 May 2022

Week 5 Term 2 2022

  Homework

  • Act 7A, p.96-97 Motion, Force & Energy
  • Act 7B, p.100-102 Impulse
  • Act 7C, p.105-106 Conservation of Momentum
  • Act 7D, p.110-112 Centre of Mass (C.O.M.)
  • Ex 4A, p.100-102 Centre of Mass (C.O.M.)
  • Ex 4B, p. 108-112 C.O.M. & Momentum
  • Act 8A, p.120-121 Horizontal Circles and Banked Corners
  • Act 8B, p.124-125 Vertical Circles
  • Act 8C, p.129 Sattelites
  • Ex 4D, p.128-131, Banked Corners (Circular Motion)
  • Ex 4E, p.138-142, Vertical Circles
  • Ex 4F, p.145-147, Gravity
  • Ex 4G, p.153-156 Satallites
  • Act 9A, p. 128-129, Angular Motion
  • Act 9B, p. 133-135, Torque - Angular Force
  • Act 9C, p. 128-129, Angular Momentum
  • Ex 4H, p.160-162, Rotational Kinematics
  • Ex 4I, P.167-171, Rotational Force & Momentum
  • Ex 4J, p.175-177, Rotational Kinetic Energy

Radians

Radian Measure is used so that we can easily calculate an arc length, d (m), given an angle, š›‰ (Rad) and the radius, r (m).

d = rš›‰

This in turn allows us to relate velocity, v (ms-1) to angular velocity ⍵ (rads-1), in the same way.

v = r⍵, 

also ⍵ = 2š…f

 This also allows us to relate acceleration, a (ms-2), to angular acceleration, Ī± (rads-2), in the same way.

a = rα

The rotational kinematics work just like the translational kinematic equations when there is a constant acceleration.


Rotational Kinematics Review

Rotational Kinematics



Rotational Kinematics Physics: Problems, Basic Introduction, Equations & Formulas



Rotational Motion Physics, Basic Rotational Motion Physics: Introduction, 

Angular Velocity & Tangential Acceleration




Rotational Inertia



Rotational Inertia

Torque


Angular Momentum

Angular Momentum - Sixty Symbols

Gyroscopic Precession



Slow Motion Flipping Cat Physics



Counter Steering Physics




The Bizarre Behavior of Rotating Bodies, Explained


Ellipzoids and the Bizarre Behavior of Rotating Bodies