The motion is likely not to be a simple harmonic motion as required for the formula for the period of a pendulum to work properly. The angle of swing is likely to reduce.
Pendant in a clock Swing Suspended spring with mass attached An object moving back and forth between rubber buffers along an air track
Yes, the simple machine is a lever if you look at the top of a normal playground swing.
Since amplitude can vary, it is inconvenient to set "0" at the maximum swing point. This can move your zero and all successive measurements with just a touch. Additionally, "simple harmonic motion" is easily described by combinations of the sine and cosine functions, and they yield positive and negative values of equal magnitudes. So it is *easier* to set zero at "mid span".
yes
The pendulum of a clock exhibits simple harmonic motion, where it swings back and forth in a constant rhythm. A swing also exhibits simple harmonic motion as a person sits and moves back and forth, propelled by gravity and their own momentum.
a swing is basically a pendulum, meaning it oscillates as simple harmonic motion. It is not much different from a mass on a string in other words
The main forces at play in a pendulum swing are gravity and tension. Gravity pulls the pendulum bob downward while tension in the string keeps it swinging back and forth. The motion of the pendulum is an example of simple harmonic motion, where the pendulum swings back and forth with a constant period.
The motion is likely not to be a simple harmonic motion as required for the formula for the period of a pendulum to work properly. The angle of swing is likely to reduce.
Pendant in a clock Swing Suspended spring with mass attached An object moving back and forth between rubber buffers along an air track
The motion of a pendulum is like that of a wave because both have regular oscillations back and forth. The swinging motion of a pendulum can be described in terms of its frequency and amplitude, similar to how a wave can be characterized by its frequency and wavelength. Additionally, both pendulum motion and wave motion involve the transfer of energy.
Simple harmonic motion is non-complex periodic motion, just like the swing of a pendulum. The pendulum starts at the "top" of one side, swings down through the bottom of an arc, and then reaches the "top" of the other side. Once there, it swings back down through the bottom of its arc to the place it began. This is one complete cycle of the motion of that pendulum. What is characteristic of the motion is that is repeats, and there is a time interval associated with the movement. It takes some amount of time for the complete cycle to occur, and that is said to be the period of the motion. Additionally, if we look at the number of cycles of the motion for a given period of time, we could specify a frequency for that motion. It takes "x" seconds for one cycle (the period of the motion) to occur, or there are "z" cycles of that motion (the frequency of the motion) for a given span of time.All things considered, either frequency or periodcould be said to be a basic unit of simple harmonic motion.
Yes, the simple machine is a lever if you look at the top of a normal playground swing.
Since amplitude can vary, it is inconvenient to set "0" at the maximum swing point. This can move your zero and all successive measurements with just a touch. Additionally, "simple harmonic motion" is easily described by combinations of the sine and cosine functions, and they yield positive and negative values of equal magnitudes. So it is *easier* to set zero at "mid span".
An example of periodic motion is a swing moving back and forth. The swing repetitively oscillates around a fixed point due to the force of gravity and the initial push given to it. The motion of the swing follows a pattern that repeats at regular intervals.
An example of oscillating motion is a swing going back and forth in a park. As the swing moves forward and backward repeatedly around its central point, it exhibits oscillatory behavior.
Swinging involves the interplay of various physical forces such as gravity, tension, and centripetal force. The motion of swinging objects can be described using principles of mechanics, including conservation of energy and the relationship between force, mass, and acceleration. In swinging activities like a pendulum or a playground swing, physics concepts are essential to understand and predict the motion of the object.