## How do you calculate the period for a spring mass and a pendulum?

The force constant that characterizes the pendulum system of mass m and length L is k = mg/L. Once you have the force constant, it is easy to get all the motion properties! To get the period of the pendulum, simply substitute the pendulum constant k = mg/L into the general period formula T = 2π√m/k.

## How is a spring like a pendulum?

Unlike a spring, the restorative force is dependent on gravity and the angle (ɵ) of motion from the midpoint, rather than the mass suspended from the pendulum. The pendulum is like a spring since the restorative forces for both depend on displacement.

**What does a pendulum period depend on?**

The period of a pendulum does not depend on the mass of the ball, but only on the length of the string. Two pendula with different masses but the same length will have the same period. Two pendula with different lengths will different periods; the pendulum with the longer string will have the longer period.

**What is period formula?**

… each complete oscillation, called the period, is constant. The formula for the period T of a pendulum is T = 2π Square root of√L/g, where L is the length of the pendulum and g is the acceleration due to gravity.

### What is a spring pendulum used for?

In conclusion, the spring pendulum system can be used to model real life scenarios. For example, creators of roller coasters can use this project and they can change F (t, y) to different initial values depending on the impact they would like to achieve.

### Does Hooke’s law apply to pendulum?

The motion of a simple pendulum is very close to Simple Harmonic Motion (SHM). SHM results whenever a restoring force is proportional to the displacement, a relationship often known as Hooke’s Law when applied to springs.

**How would you find the period of a pendulum?**

A mass m suspended by a wire of length L is a simple pendulum and undergoes simple harmonic motion for amplitudes less than about 15º. The period of a simple pendulum is T=2π√Lg T = 2 π L g , where L is the length of the string and g is the acceleration due to gravity.

**Why do pendulums have the same period?**

Period of oscillation For small swings the period of swing is approximately the same for different size swings: that is, the period is independent of amplitude. This property, called isochronism, is the reason pendulums are so useful for timekeeping.

#### Why does length of pendulum affect period?

The longer the length of string, the farther the pendulum falls; and therefore, the longer the period, or back and forth swing of the pendulum. The greater the amplitude, or angle, the farther the pendulum falls; and therefore, the longer the period.)

#### How is an elastic pendulum related to a spring?

(October 2019) In physics and mathematics, in the area of dynamical systems, an elastic pendulum (also called spring pendulum or swinging spring) is a physical system where a piece of mass is connected to a spring so that the resulting motion contains elements of both a simple pendulum and a one-dimensional spring-mass system.

**How is the potential energy of a pendulum determined?**

The angle of oscillation of the pendulum is . is the potential energy. See. Hooke’s law is the potential energy of the spring itself: is the spring constant. The potential energy from gravity, on the other hand, is determined by the height of the mass. For a given angle and displacement, the potential energy is: is the gravitational acceleration .

**How is the frequency of a spring related to the period?**

The frequency ‘f’ indicates the number of cycles per second the spring undergoes, while the period ‘P’ denotes the time between oscillating motions. The two traits bear an inverse relationship and can be represented as P = 1/f. Let us look at the frequency to determine the properties that affect this variable.

## How is the strength of a spring related to the spring constant?

The spring constant is dependent on the strength of the spring. It takes into consideration various physical properties of the skin, such as the material the spring is made from and the diameter of the spring’s thickness. The thicker the spring, the higher the spring constant.