John observes that a moving loaded car is slightly and very slowly bouncing up and down. Which of the following is trueabout the load of the car.A) The car is heavily loaded since frequency is directly proportional to the square root of mass.B The car is heavily loaded since frequency is inversely proportional to the square root of mass.C) The car is lightly loaded since frequency is inversely proportional to the square root of mass.DThe car is lightly loaded since frequency is directly proportional to the square root of mass.

Name: John observes that a moving loaded car is slightly and very slowly bo
Uploaded: 2024-03-20T06:58:04.000Z
Channel: Bartleby
Description: John observes that a moving loaded car is slightly and very slowly bouncing up and down. Which of the following is trueabout the load of the car.A) The car is heavily loaded since frequency is directly proportional to the square root of mass.B The c

Time period of mass attached to spring T = 2π(m/k)1/2 Where k = Force constant of spring

Answered: n observes that a moving loaded car is…

Science

Physics

n observes that a moving loaded car is slightly and very slowly bouncing up and down. Which of the following is true ut the load of the car.

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

See similar textbooks

Similar questions

A bullet of mass 0.01 kg is fired at a block of mass 1.3 kg as shown in the figure. After the collision, the bullet is embedded in the wooden block and together they move. If the speed of the bullet is 339.89 m/s, find the maximum height the block reaches with the bullet when during the oscillation. Enter your answer to two decimal places.
Please solve this problem. Thank you so much!
PROBLEM 4: A small bead of mass m is constrained to slide without friction inside a circular hoop of radius r which rotates about a vertical axis with an angular frequency a. Determine (a) the angle the beads make with the vertical axis (0), assuming the bead stays at the same height, and (b) the normal force acting on the bead. ول
The system composed of two springs and a particle with mass ? shown in the figure can beconsidered as a system with a single equivalent spring. Suppose you move the particle and stretchboth springs (since the force constants are not the same, it cannot be assumed that both springs arestretch the same, you must find a relationship between how much each spring stretches and the displacement of the spring.particle). Determine an expression for the equivalent spring constant in terms of the constantsof each spring.
A small block with mass m slides along a frictionless horizontal surface with a speed v = with and sticks to the end of a uniform rod (mass M = m, length L = 0.75 m) that can rotate around a frictionless axle through its upper end as shown. :0.4 m/s. It collides %3D a) Use Newton's 2nd law to find the angular frequency w of small angle oscillations for the combined system. b) What is the amplitude (maximum displacement 0max) from the vertical, expressed in degrees?
Suppose a 78 kg person is bouncing on a bathroom scale which has a force constant of 1.25 × 106 N/m. What is the maximum velocity of the person, in meters per second, if the amplitude of the bounce is 0.235 cm? What is the maximum energy, in joules, stored in the spring?
P13.189 = When the rope is at an angle of a 35°, the 0.5 kg sphere A has a speed v0 = 1.5 m/s. The coefficient of restitution between A and the 0.9 kg wedge B is 0.7 and the length of rope 1 = 0.8 m. The spring constant has a value of 500 N/m and 0 = 30°. Determine the velocity of A and B immediately after the impact. a B k
What is the maximum velocity (in m/s) of a 51.0 kg person bouncing on a bathroom scale having a force constant of 1.35 ✕ 105 N/m if the amplitude of the bounce is 0.200 cm?
Fig. P13.179 and P13.180 B |---| 13.180 A 5-kg sphere is dropped from a height of y = 3 m to test a new spring floor used in gymnastics. The mass of floor section B is 12 kg, and the sphere bounces back upward a distance of 44 mm. Knowing that the maximum deflection of the floor section is 33 mm from its equilibrium position, determine (a) the coefficient of restitution between the sphere and the floor, (b) the effective spring constant k of the floor section.
R The diagram shows a small body on the inside of a smooth half cylinder of radius R. It is released on the surface at an initial angle of 0. Assume that is small enough for sin 0,0₁ to be valid. ~ (a) Prove that the body executes SHM and find the period. (b) Calculate the time at which the body passes the lowest point for the first time, and its velocity there. (c) Use energy methods to compute that velocity and explain the difference between the two results. Hint: exploit the similarity of this system to the mathematical pendulum and use the approximation cose=1-%
Doing some physics homework and am kind of stumped here!
ogle com/forms/d/e/1FAlpQLSfZmunlD825yElvKTAnaDSMUoJunes8asgx-ReHuH_kAryaGg/form. A simple pendulum is set into motion at two different times with different initial conditions. The first time: the bob is in its equilibrium position and is given an initial velocity +4 m/s. The maximum height reached by the bob is h1,max and the period of motion is T1. The second time: the bob is in its equilibrium position and is given an initial velocity +2 m/s. The maximum height reached by the bob is h2,max and the period of motion is T2. Assume that the motion is simple harmonic, which of the following is true? ha =himax/4 and T, T, thmax and T-2A