Compute period, length, or frequency of a simple pendulum online.
Please provide exactly two of the four fields.
Enter the pendulum length, period, or frequency into the area specified.
Select the units (meters for length, seconds for dropping time, hertz for frequency).
Click on the "Calculate" to show the result and information about the motion.
To calculate properties of a pendulum utilizing our calc, enter the value of the property that is known (length, period, frequency) into its associated blank. Select the length in either meters, the period in seconds, and the frequency in hertz. Click "Calculate" to see the results. Our tool uses the basic formula for a simple pendulum, when we assume (1) small oscillation angles, and (2) constant acceleration due to gravity (9.81 meters/s²). Results are provided immediately and will provide the period, length, or frequency along with a diminutive background of the motion of the pendulum. This is a great calculator for students, teachers, and physics enthusiasts studying the motion of oscillations. Just be sure to use the right inputs and correctly consistent units for the best results.
Make small pendulum angles (<15°) to enable the formula to work correctly.
Make your length measurement from the pivot to the center of mass to ensure more reliable data.
The simple pendulum calculator uses T = 2π√(L/g), where T is the period, L is the length, and g is the gravitational acceleration (9.81 m/s²) . This formula is verified by the International System of Units (SI) for standard conditions. The calculator calculates frequency as f = 1/T. The tool also solves for the unknown variable based on user input; knowing that even for small swings it gives consistent and dependable results.
Provide students with a hands-on interaction to understand the physics concepts of pendulum motion
Assist as you set up experiments with applicable distance measurements.
Help with the observations associated with pendulum based clocks or timing devices.
A pendulum calculator is an online tool that calculates the basic parameters of a simple pendulum, including the period, length, and frequency based on information supplied by the user. The oscillator calculator takes the complexity out of physics calculations, and in addition to its usefulness to students studying oscillation dynamics, it is useful for educators and researchers studying pendulum mechanisms.
To calculate the period of a pendulum, in the our tool, simply input the Swing’s length in meters and then select "Calculate." The calc will substitute into the period calculation and output the value. For example, if a user wants to find the period of a 1.00-m-long pendulum, the tool will calculate this period as T ≈ 2.01 seconds.
In the case of a pendulum, a it’s frequency is the number of oscillations per second (Hertz, or Hz). Frequency is calculated by taking the inverse of the period, as follows f = 1/T; remember the pendulum period from above is based on T = 2π √(L/g). For example, if a pendulum oscillates every 2 seconds, then: f = 1/T therefore the frequency is 0.5 Hz. If you enter the length or period into the Pendulum Calculator, it will calculate the frequency in no time! This can help when looking at the analysis of, say, pendulum motion in the context of a physics experiment or timekeeping object, while incorporating the notion of oscillations and dynamics of the pendulum that is stylized in the unit of Hertz (Hz).
The period of a pendulum has a length dependent relationship as referenced in the equation T = 2π√(L/g). Longer Swings have longer periods, and they take longer to complete one oscillation, thus having a higher period. A Swing with a length of .5 m has a shorter period than the period of the one with a length of 1 m, if both pendulum in are in standard gravity.
Analyzing a pendulum in swing involves studying its period, frequency, and amplitude during oscillation. Using the Swing Calculator, input the length to calculate the period (T = 2π√(L/g)) or frequency (f = 1/T). For example, a 0.79-m pendulum has a period of about 1.78 seconds. Amplitude, the maximum angle of swing, affects motion minimally at small angles (less than 15°). For precise analysis, measure length accurately and ensure small-angle oscillations. This tool helps explore pendulum swing dynamics for experiments or clock design, but for large amplitudes or velocity analysis, consult advanced physics resources.