The maximum displacement of a mass from its equilibrium position is known as the amplitude. It represents the maximum distance the mass moves away from the equilibrium point during its oscillation.
The amplitude of the oscillation, which is the maximum displacement from the equilibrium position, is determined by the mass of the hanging object and the spring constant. The maximum displacement occurs when the object is released from its initial position and the system is in simple harmonic motion.
Displacement and acceleration are zero at the instant the mass passes through its "rest" position ... the place where it sits motionless when it's not bouncing. Velocity is zero at the extremes of the bounce ... where the expansion and compression of the spring are maximum, and the mass reverses its direction of motion.
No, the time period of oscillation does not depend on the displacement from the equilibrium position. The time period is only affected by the mass and stiffness of the system and is constant for a given system. The amplitude of oscillation does affect the maximum displacement from the equilibrium position.
No, the time period of oscillation of a spring-mass system does not depend on the displacement from the equilibrium position. The period of oscillation is determined by the mass of the object and the stiffness of the spring, but not the displacement.
The velocity of a mass on a spring is at its maximum value when the mass passes through its equilibrium position.
The amplitude of the oscillation, which is the maximum displacement from the equilibrium position, is determined by the mass of the hanging object and the spring constant. The maximum displacement occurs when the object is released from its initial position and the system is in simple harmonic motion.
Displacement and acceleration are zero at the instant the mass passes through its "rest" position ... the place where it sits motionless when it's not bouncing. Velocity is zero at the extremes of the bounce ... where the expansion and compression of the spring are maximum, and the mass reverses its direction of motion.
No, the time period of oscillation does not depend on the displacement from the equilibrium position. The time period is only affected by the mass and stiffness of the system and is constant for a given system. The amplitude of oscillation does affect the maximum displacement from the equilibrium position.
No, the time period of oscillation of a spring-mass system does not depend on the displacement from the equilibrium position. The period of oscillation is determined by the mass of the object and the stiffness of the spring, but not the displacement.
The velocity of a mass on a spring is at its maximum value when the mass passes through its equilibrium position.
A mass-spring system can oscillate with simple harmonic motion when compressed because the restoring force from the spring is directly proportional to the displacement of the mass from its equilibrium position. This results in a periodic back-and-forth motion of the mass around the equilibrium point.
The length of the pendulum is measured from the pendulum's point of suspension to the center of mass of its bob. Its amplitude is the string's angular displacement from its vertical or its equilibrium position.
The equation for a vertical spring-mass system is given by: m a -k x where: m mass of the object a acceleration of the object k spring constant x displacement from the equilibrium position
amplitude is the maximum displacement right from the equilibrium position. It does not depend on the mass, period or velocity. Recall displacement at any instant t is y = A sin 2 pi f t or A sin 2 pi t/T f = frequency and T - time period.
Potential energy of a body with certain mass is proportional to the vertical position of the body with respect to the ground. Potential energy of the string is proportional to second degree of displacement from the point of equilibrium.
No, the period of oscillation remains constant regardless of the initial displacement from equilibrium. The period is solely dependent on the characteristics of the system, such as the mass and spring constant.
The mass action effect is the shift in the position of equilibrium through the addition or removal of a participant in the equilibrium.