THEORY EMT101: PROJECT 4: PHYTON Figure 1 shows that a simple pendulum is made up of a mass attached to a string of leng

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THEORY EMT101: PROJECT 4: PHYTON Figure 1 shows that a simple pendulum is made up of a mass attached to a string of leng

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Theory Emt101 Project 4 Phyton Figure 1 Shows That A Simple Pendulum Is Made Up Of A Mass Attached To A String Of Leng 1
Theory Emt101 Project 4 Phyton Figure 1 Shows That A Simple Pendulum Is Made Up Of A Mass Attached To A String Of Leng 1 (57.17 KiB) Viewed 73 times
THEORY EMT101: PROJECT 4: PHYTON Figure 1 shows that a simple pendulum is made up of a mass attached to a string of length L that doesn't stretch and is fixed at a pivot point P. When moved to an initial angle 80 of a radian and let go, the pendulum will swing back and forth at regular intervals. Using Newton's law, the equation of motion turns into the equation of simple harmonic motion. 8 = 0,cos (√T) where 60 is initial angular displacement and I is the period time for one oscillation. For larger amplitude 0º < 0, <180°, the motion is simple harmonic with the period of (time for one oscillation) T = 2π where g is the acceleration due to gravity. L mg sine cos mg m Figure 1 -0.5 mg cose
QUESTION Develop a Phyton program to investigate the relationship of the motion of the simple pendulum at a different initial angle in a period of time of one oscillation. (Assume the g = 9.81 m/s, L = 1 m and 80 degreed value is from user input). Your program should be able to: 1. Request the user input for initial angular displacement 80 degreed (valid only for 0º < 0o < 180° intervals) and convert the 8, the degree to radian. (the values are in radians) 2. Calculate and display the values of angular displacement along the 0≤ t ≤ T intervals with a 0.025-time step. 3. Plot the 8(t) vs t. 4. Set up a suitable legend, title, axis label, and line colour in your graph. Please submit your answer in two different versions of the file. First, submit your source code in the.ipynb file. Second, combine the source code, results, and graph into one PDF file. Submit all the files through e-learning. The submission date is July 21, 2022.
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