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Michael Calixto
Dynamics, Kinematics, and Vibrations
In Process. Question in Exam 10-15
A. Kinematics of particles
A1.Particle Kinematics: Position Coordinate via Velocity
A2. Particle Kinematics: Velocity
A3. Particle Kinematics: Minimum Velocity
A4. Particle Kinematics: (Initial) Acceleration 1
A5. Particle Kinematics: Acceleration 2
A6. Cartesian Coordinates (Magnitude of Particle's Acceleration)
A7. Cartesian Coordinates (Magnitude of Particle's Velocity)
A8. Particle Rectilinear Motion (Distance Traveled)
A9. Relative Motion
A10.Plane Circular Motion: Angular Acceleration
A11. Constant Acceleration
A12. Constant Acceleration: Finding deceleration 1
A13. Constant Acceleration: Finding Velocity
A14. Constant Acceleration: Finding deceleration
A15. Constant Angular Deceleration
A16. Projectile Motion: Time of Flight
A17. Projectile Motion: Horizontal Distance
A18. Projectile Motion: Max Elevation
A19. Non-constant Acceleration
B. Kinetic Friction
Acceleration using Friction
Friction using Particle Kinetics
Maximum Force using Particle Kinetics and Friction
Velocity using Constant Acceleration and Friction
Particle Kinetics Velocity using Friction
Distance Between Two Points: Weight, Friction, Force
C. Newton's Second Law for particles
Particle Kinetics for Constant Mass (Maximum Acceleration)
Particle Kinetics for Constant Mass (Weight in a Elevator)
One-Dimensional Motion of a Particle (Constant Mass)
D. Work-energy of Particles
Principle of Work and Energy 1 (Kinetic energy at a certain point)
Principle of Work and Energy 2 (Velocity at a certain point)
Kinetic Energy (Energy Lost) 1
Kinetic Energy (Energy Lost) 2
Potential Energy (Spring Compression, Displacement)
E. Impulse-momentum of Particles
Impulse-momentum principle
Impulse-momentum principle 1 (Speed of the car before collision)
Impulse-momentum principle 2 (Time difference to not shift)
Impulse-momentum principle 3 (Impact to Impulse)
Impact with two moving mass
Impact with a stationary mass
F. Kinematics of Rigid Bodies
Kinematics of a Rigid Body
Instantaneous Center of Rotation (Instant Centers)
Superelevation angle
G. Kinematics of mechanisms
H. Newton's Second Law for Rigid Bodies
I. Work-energy of rigid Bodies
Nonconservation Forces
Principle of Work and Energy
J. Impulse-momentum of Rigid Bodies
K. Free and Forced Vibrations
Equivalent Spring Constant 1
Equivalent Spring Constant 2
Springs and Natural Frequency 1
Natural Frequency 2
Natural Frequency 3
Static Deflection
Maximum Acceleration After Impact
Torsional Vibration (Natural Period)
Torsional Vibration (Natural Frequency 4)
Period of Pendulum
A. Kinematics of particles
A1.
Particle Kinematics:
Position Coordinate via Velocity
37.5.pdf
A2.
Particle Kinematics:
VelocityÂ
37.1.pdf
A3.
Particle Kinematics: Mini
mum
VelocityÂ
37.13.pdf
A4.
Particle Kinematics: (In
itial)
Acceleration 1Â
37.7.pdf
A5. Particle Kinematics: Acceleration 2
2010 Question 4.pdf
A6.
Cartesian Coordinates (Magnitude of Particle's
Acceleration
)
37.12.pdf
A7. Cartesian Coordinates (Magnitude of Particle's Velocity)
37.4.pdf
Magnitude
A8. Particle Rectilinear Motion (Distance Traveled)
38.2.pdf
Distance Traveled
A9. Relative Motion
NCESS question 36.pdf
Relative Motion
A10.Plane Circular Motion: Angular Acceleration
37.9.pdf
A11. Constant Acceleration
37.6.pdf
A12.
Constant Acceleration: Finding
deceleration 1
37.10.pdf
Deceleration
A13. Constant Acceleration: Finding Velocity
37.5.pdf
Velocity
A14.
Constant Acceleration: Finding deceleration
37.2.pdf
Constant Deceleration Rate
A15. Constant Angular Deceleration
37.8.pdf
Constant Deceleration
A16. Projectile Motion: Time of Flight
37.3.pdf
Time of Flight
A17. Projectile Motion: Horizontal Distance
37.11.pdf
Horizontal Distance
A18.
Projectile Motion:
Max Elevation
37.14.pdf
Elevation
A19. Non-constant Acceleration
NCESS question 40.pdf
B. Kinetic Friction
Acceleration using Friction
NCESS question 33.pdf
Dynamic Friction
Friction
using Particle KineticsÂ
38.5.pdf
Friction
Maximum Force using Particle Kinetics and Friction
2010 Question 35.pdf
Velocity
using
Constant Acceleration
and Friction
38.1.pdf
Velocity for Friction
Particle Kinetics Velocity using Friction
NCESS question 41.pdf
Particle Kinetics
Distance Between Two Points: Weight, Friction, Force
38.7.pdf
Distance Between Two Points
C. Newton's Second Law for particlesÂ
Particle Kinetics for Constant Mass (Maximum Acceleration)Â
38.4.pdf
Max Acceleration
Particle Kinetics for Constant Ma
ss (Weight in a Elevator
)Â
38.3.pdf
Weight in a elevator
One-Dimensional Motion of a Particle (Constant Mass)
One-Dimensional Motion of a Particle (Constant Mass)
D. Work-energy of Particles
Principle of Work and Energy 1 (Kinetic energy at a certain point)
Law of conservation
40.5.pdf
Kinetic Energy
Principle of Work and Energy 2 (
Velocity at a certain point
)
40.10.pdf
Velocity
Kinetic Energy (Energy Lost)
1
40.3.pdf
Energy Dissipated
Kinetic Energy (Energy Lost) 2
40.7.pdf
Lost Energy
Potential Energy (Spring Compression, Displacement)
40.1.pdf
Initial Spring Compression
E. Impulse-momentum of Particles
Impulse-momentum principle
Impulse-momentum principle
Impulse-momentum principle 1
(Speed of the car before collision)Â
40.4.pdf
Speed of car
Impulse-momentum principle
2
(
Time difference to not shift
)Â
40.6.pdf
Time before shift
Impulse-momentum principle
3
(Impact
to Impulse)
40.9.pdf
Impulse
Impact with
two moving mass
40.2.pdf
Impact of two balls
Impact with a stationary mass
NCESS question 38.pdf
F. Kinematics of Rigid Bodies
Kinematics of a Rigid Body
NCESS Question 39.pdf
Kinematics of a Rigid Body
Instantaneous Center of Rotation (Instant Centers)
NCEES question 35.pdf
Instant Centers
Superelevation angle
39.1.pdf
Superelevation angle
G. Kinematics of mechanisms
H. Newton's Second Law for Rigid Bodies
I. Work-energy of rigid Bodies
Nonconservation Forces
NCEES question 34.pdf
Nonconservative Forces
Principle of Work and Energy
NCESS question 42.pdf
Work and Energy
J. Impulse-momentum of Rigid Bodies
K. Free and Forced Vibrations
Equivalent Spring Constant 1
41.1.pdf
Equivalent Spring
Equivalent Spring Constant
2
41.4.pdf
Spring Constant
Springs and Natural Frequency 1
41.3.pdf
Natural Frequency
Natural Frequency 2
41.9.pdf
Natural Frequency 2
Natural Frequency
3
41.6.pdf
Natural Frequency of a System
Static Deflection
41.5.pdf
Static Deflection
Maximum Acceleration After Impact
NCESS question 37.pdf
Free and Forced Vibration
Torsional Vibration (Natural Period)
41.2.pdf
Period of Oscillation
Torsional Vibration (Natural
Frequency 4
)
41.7.pdf
Natural Frequency
Period of Pendulum
41.8.pdf
Period of Pendulum
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