If the spring's length is doubled, the spring constant is unchanged, and the velocity will remain the same in simple harmonic motion with a spring. The period of oscillation will change, as it is affected by the spring constant and mass of the object.
If the length of a spring is halved, the stiffness remains the same. Stiffness of a spring is determined by its material and construction, not by its length. Cutting the length in half does not change the material properties that govern stiffness.
When you pull a spring, it increases in length due to the stretching of its coils. The amount by which the spring elongates is proportional to the force applied to it, as described by Hooke's Law.
The length of the spring increases when you add a mass to it due to the force of gravity pulling the mass downwards and stretching the spring. This change in length is proportional to the weight of the added mass and the spring's stiffness.
The spring has maximum velocity when it is at its equilibrium position or at maximum compression or extension. This is where the spring has stored the most potential energy, which is then converted into kinetic energy, resulting in the highest velocity.
When the amplitude of simple harmonic motion is doubled, the time period remains the same. The time period of simple harmonic motion only depends on the mass and spring constant of the system, not the amplitude.
If the length of a spring is halved, the stiffness remains the same. Stiffness of a spring is determined by its material and construction, not by its length. Cutting the length in half does not change the material properties that govern stiffness.
Nothing; it remains the same as before.
When you pull a spring, it increases in length due to the stretching of its coils. The amount by which the spring elongates is proportional to the force applied to it, as described by Hooke's Law.
The length of the spring increases when you add a mass to it due to the force of gravity pulling the mass downwards and stretching the spring. This change in length is proportional to the weight of the added mass and the spring's stiffness.
The spring has maximum velocity when it is at its equilibrium position or at maximum compression or extension. This is where the spring has stored the most potential energy, which is then converted into kinetic energy, resulting in the highest velocity.
When the amplitude of simple harmonic motion is doubled, the time period remains the same. The time period of simple harmonic motion only depends on the mass and spring constant of the system, not the amplitude.
If the spring constant is doubled, the period of the oscillation (T) will decrease. This is because the period is inversely proportional to the square root of the spring constant (T ∝ 1/√k). Therefore, doubling the spring constant will result in a shorter period for the oscillation.
If the length of the spring is halved, the spring constant remains the same. The spring constant is determined by the material and shape of the spring, and is not affected by changes in length.
multiply the force with length.
The velocity of a mass on a spring is at its maximum value when the mass passes through its equilibrium position.
The spring constant remains the same regardless of the length of the spring. It is a physical property of the spring material and design, representing its stiffness. Cutting the length of the spring in half will not change its spring constant.
depends on the initial length of the spring, and how much force is required to stretch the spring