Physics 3210 Week 13 clicker questions. Exam 3 scores Median 52 SD 16.

Slides:



Advertisements
Similar presentations
Oscillations and Simple Harmonic Motion:
Advertisements

Lecture D31 : Linear Harmonic Oscillator
Angular Quantities Correspondence between linear and rotational quantities:
1 Simple harmonic motion displacement velocity = dx/dt acceleration = dv/dt LECTURE 3 CP Ch 14 CP449.
Chapter Ten Oscillatory Motion. When a block attached to a spring is set into motion, its position is a periodic function of time. When we considered.
Physics 218: Mechanics Instructor: Dr. Tatiana Erukhimova Lecture 42.
Physics 3210 Week 12 clicker questions. If v is a vector in one frame and v is the same vector in a rotated frame, we showed that v=Av, where A is a rotation.
Phy 212: General Physics II Chapter 15: Oscillations Lecture Notes.
Euler Equations. Rotating Vector  A fixed point on a rotating body is associated with a fixed vector. Vector z is a displacement Fixed in the body system.
THIS LECTURE single From single to coupled oscillators.
Problmes-1.
Chapter 14 Oscillations Chapter Opener. Caption: An object attached to a coil spring can exhibit oscillatory motion. Many kinds of oscillatory motion are.
PHYS 218 sec Review Chap. 13 Periodic Motion.
Torque and Simple Harmonic Motion Week 13D2 Today’s Reading Assignment Young and Freedman:
Mechanical Energy and Simple Harmonic Oscillator 8.01 Week 09D
Chapter 15 Oscillatory Motion.
PHY131H1S - Class 21 Today: Oscillations, Repeating Motion Simple Harmonic Motion Oscillations / Circular Motion Connection Potential and Kinetic Energy.
Motion of a mass at the end of a spring Differential equation for simple harmonic oscillation Amplitude, period, frequency and angular frequency Energetics.
Sect 5.7, Part II Now, quantitative predictions under the initial conditions  = 0, θ = 0. Assumption: The rotational kinetic energy about the z axis.
Harmonic Oscillation 1. If a force F acts on a spring, the length x changes. The change is proportional to the restoring force (Hooke’s Law). A spring.
Give the expression for the velocity of an object rolling down an incline without slipping in terms of h (height), M(mass), g, I (Moment of inertia) and.
Physics 121C - Mechanics Lecture 23 (Knight: ) Simple Harmonic Motion December 7, 2005 (29 Slides) John G. Cramer Professor of Physics B451.
Oscillations and Waves An oscillation is a repetitive motion back and forth around a central point which is usually an equilibrium position. A special.
16.1 Simple Harmonic Motion
AP Physics C I.F Oscillations and Gravitation. Kepler’s Three Laws for Planetary Motion.
Physics 3210 Week 9 clicker questions. Exam 2 scores Median=45 Standard deviation=22.
Chapter 8 Rotational Motion.
Chapter 15 Oscillatory Motion.
Physics 3210 Week 14 clicker questions. When expanding the potential energy about a minimum (at the origin), we have What can we say about the coefficients.
Simple Harmonic Motion: SHM
8/8/2011 Physics 111 Practice Problem Statements 14 Oscillations SJ 8th Ed.: Chap 15.1 – 15.5 Oscillations – Basics Hooke’s Law: A Mass on a Spring Simple.
1.To understand the energy transformations which take place during simple harmonic motion Book Reference : Pages
Physics 3210 Week 10 clicker questions. Consider a Foucault pendulum in the northern hemisphere. We derived the motion of the pendulum in the absence.
The Spinning Top Chloe Elliott. Rigid Bodies Six degrees of freedom:  3 cartesian coordinates specifying position of centre of mass  3 angles specifying.
Oscillatory motion (chapter twelve)
Wednesday, Nov. 20, 2002PHYS , Fall 2002 Dr. Jaehoon Yu 1 PHYS 1443 – Section 003 Lecture #19 Monday, Nov. 20, 2002 Dr. Jaehoon Yu 1.Energy of.
Torque and Simple Harmonic Motion Week 13D2 Today’s Reading Assignment Young and Freedman:
Periodic Motions.
Ball in a Bowl: F g F N F g F N  F  F Simple Harmonic Motion (SHM) Stable Equilibrium (restoring force, not constant force)
Physics 3210 Week 11 clicker questions. Multiplication of a vector by a matrix A is a linear transformation What happens to an eigenvector of A under.
Simple Harmonic Motion Physics is phun!. a) 2.65 rad/s b) m/s 1. a) What is the angular velocity of a Simple Harmonic Oscillator with a period of.
Spring 2002 Lecture #18 Dr. Jaehoon Yu 1.Simple Harmonic Motion 2.Energy of the Simple Harmonic Oscillator 3.The Pendulum Today’s Homework Assignment.
Oscillations Readings: Chapter 14.
Oscillations. Periodic Motion Periodic motion is motion of an object that regularly returns to a given position after a fixed time interval A special.
Today’s Concept: Simple Harmonic Motion: Mass on a Spring
Physics 201: Lecture 28, Pg 1 Lecture 28 Goals Goals  Describe oscillatory motion  Use oscillatory graphs  Define the phase constant  Employ energy.
Physics 123A - Lecture 11 Oscillatory Motion An oscillator is an object or system of objects that undergoes periodic oscillatory motion or behavior. Example:
1 10. Harmonic oscillator Simple harmonic motion Harmonic oscillator is an example of periodic motion, where the displacement of a particle from.
PHY 151: Lecture Motion of an Object attached to a Spring 12.2 Particle in Simple Harmonic Motion 12.3 Energy of the Simple Harmonic Oscillator.
Waves and Oscillations_LP_3_Spring-2017
Oscillations © 2014 Pearson Education, Inc..
Simple Harmonic Motion
Mechanical Vibrations
Applications of SHM and Energy
Voronkov Vladimir Vasilyevich
Harmonic Motion (III) Physics 1D03 - Lecture 33.
Classical Mechanics Review 4: Units 1-22
Physics I LECTURE 22 11/29/10.
Oscillations Readings: Chapter 14.
Harmonic Motion Chapter
Chapter 15 Oscillations.
Oscillatory Motion Periodic motion Spring-mass system
Q13. Oscillatory Motion.
PHYS 1443 – Section 003 Lecture #19
Harmonic Motion (II) Mass and Spring Energy in SHM
Differential Equations
Simple Harmonic Motion 2
Physics 319 Classical Mechanics
Simple Harmonic Motion
PHYS 1443 – Section 501 Lecture #25
Presentation transcript:

Physics 3210 Week 13 clicker questions

Exam 3 scores Median 52 SD 16

We wish to determine the kinetic energy T=½ωIω, where ω is the angular velocity and I is the inertia tensor. Which frame should we use when doing the calculation? A. The body frame B. The space frame C. Some other frame

We determined the kinetic energy T=½ωIω in the body frame. How does this compare to the kinetic energy in the space frame? A. The kinetic energy in the space frame is less than the kinetic energy in the body frame. B. The kinetic energy in the space frame is the same as the kinetic energy in the body frame. C. The kinetic energy in the space frame is greater than the kinetic energy in the body frame.

Physics 3210 Wednesday clicker questions

We found the Lagrangian of a symmetric top in a gravitational field: Which of the following quantities are conserved? I. The total energy. II. The generalized momentum associated with θ. III. The generalized momentum associated with ψ. IV. The generalized momentum associated with φ. A. I only. B. I and II. C. I, II, and III. D. I, III, and IV. E. I, II, III, and IV.

We found that the total energy of a symmetric top in a gravitational field can be written: What motion does this equation describe? A. One-dimensional motion in θ. B. The coupling between θ and φ motion. C. The coupling between θ and ψ motion. D. The coupling between θ, φ, and ψ motion. E. None of the above.

A symmetric top has total effective energy E 1. What type of motion does this top undergo? A. The top is stationary. B. The top undergoes constant precession about the vertical axis. C. The top undergoes precession about the vertical axis combined with nutation. D. It cannot be determined from the information given. E1E1 V eff θ

A symmetric top has total effective energy E 2. What type of motion does this top undergo? A. The top is stationary. B. The top undergoes constant precession about the vertical axis. C. The top undergoes precession about the vertical axis combined with nutation. D. It cannot be determined from the information given. E2E2 V eff θ

A system of two coupled harmonic oscillators has spring constants k (left spring), k 12 (middle spring), and k (right spring). The displacements of the blocks are measured from equilibrium. What are the forces on the blocks? A. B. k x1x1 mm kk 12 x2x2 C. D.

For the system of two coupled harmonic oscillators, an oscillatory solution is possible if the amplitudes satisfy What type of equation is this? k x1x1 mm kk 12 x2x2 A. A system of differential equations. B. A polynomial equation. C. An eigenvalue equation. D. A system of nonlinear equations.

Physics 3210 Friday clicker questions

For the system of two coupled harmonic oscillators, the eigenfrequencies are What types of motion correspond to oscillations with the two eigenfrequencies? k x1x1 mm kk 12 x2x2 A. The blocks move with the same frequency. For frequency ω 1 : the two blocks are in phase; for frequency ω 2, the two blocks are exactly out of phase. B. The blocks move with the same frequency. For frequency ω 1 : the two blocks are exactly out of phase; for frequency ω 2, the two blocks are in phase. C. The blocks move with different frequencies. D. None of the above.

A system of two coupled harmonic oscillators has spring constants k (left spring), k 12 (middle spring), and k (right spring). If block 1 oscillates while block 2 is held fixed, what is the frequency of oscillations? A. B. k x1x1 mm kk 12 x2x2 C. D.

A system of two coupled harmonic oscillators has spring constants k (left spring), k 12 (middle spring), and k (right spring). The displacements of the blocks are measured from equilibrium. How do the eigenfrequencies compare to the uncoupled frequency A. B. k x1x1 mm kk 12 x2x2 C. D.

A system of two coupled harmonic oscillators has spring constants k (left spring), k 12 (middle spring), and k (right spring). The displacements of the blocks are measured from equilibrium. If the coupling is weak (k 12 <<k), what is an approximate expression for the frequency A. B. k x1x1 mm kk 12 x2x2 C. D.

A system of two coupled harmonic oscillators has weak coupling (k 12 <<k), and block 1 is displaced and released from rest. We found that What type of motion do these equations describe? A. Harmonic oscillation of both blocks at a single frequency. B. Fast oscillation of block 1 and slow oscillation of block 2. C. Fast oscillation of block 2 and slow oscillation of block 1. D. Alternating fast and slow oscillations of the two blocks. E. Oscillation with beats: a fast oscillation modulated by a slow oscillation. k x1x1 mm kk 12 x2x2