If a particle starts from position with initial velocity , and acceleration (constant).
Position of particle as a function of time is
During the position time plot(quadratic fit), equation used is
Comparing the two equations,
Hence A is equal to half of the acceleration.
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When a particle moves with initial velocity , and acceleration
Velocity of a particle as a function of time is
For the linear fit of velocity Vs time, the equation used is
comparing the above two equations, ,
That is slope of best fit line is equal to acceleration ( ).
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Acceleration from quadratic fit is
Acceleration from best fit line is
Percentage difference in accelerations is
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If the cart did not accelerate, velocity will be constant.( acceleration is zero)
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need help please DO A QUADRATIC FIT ON THE POSITION VS, TIME GRAPH, THE VALUE OF...
Please note that X is time Value Position vs Time Linear Fit m y = mx + b Quadratic Fit Α. B 0.305 -0.0583 y=0.305x -0.0583 4 1 0.110 -0.0663 0.195... yöllx'-0.0663x7.195 |(1.550, 0.359) 1(1.600,0.373) 0.28 y = Ax?+ Bx + C (x1, yı) (x2, Y2) Slope For Position vs Time data: (a) Did your quadratic fit of this graph provide initial position? If yes, what is its value? (4 points) (b) Did your quadratic fit of this graph provide...
1) a) For the position vs. time graph shown below, sketch the velocity vs. time and acceleration vs. time graphs corresponding to the motion. (5 pts each) Beside the position and acceleration graphs, describe the motion of the object and explain why you drew the graph the way you did. (10 pts) 25 pts total
The slope A of your best fit line on the force vs acceleration graph should be equal to the mass of the cart and probe (in kg), if force and acceleration truly are proportional. How does the slope value compare with the mass value?
Please answer physics lab questions SECTION: DATE: ANALYSIS PARTI: POSITION VS. TIME GRAPH MATCHING I. Describe how you walked for each of the graphs that you matched. When the aph hada honit. period wedid net mare wiun the crapん1ad a linlan perod we moved but at o constan sperd Explain the significance of the slope of a position vs. time graph. Include a discussion of positive 2. and negative slope. 3. What type of motion is occurring when the slope...
Please explain For each of the velocity vs. time graphs below, sketch possible comesponding position vs. time and acceleration vs. time graphs. To the right of the graph, briefly describe the motion of the object and why the graphs you drew are consistent with the velocity graph. Where is the object at time t 0 in each case? Explain
For each of the velocity vs. time graphs below, sketch possible corresponding position vs. time and acceleration vs. time graphs. To the right of the graph, briefly describe the motion of the object and why the graphs you drew are consistent with the velocity graph. Where is the object at time t = 0 in each case? Explain.
Part 2: Velocity vs. Time 1. For each velocity vs. time graph (Graph 3 and 4), describe how you would walk in order to replicate the 1-D motion graph. Use words such as away, toward, at rest, speeding up, slowing down, constant speed. Be specific with your time periods. 2. For each velocity vs. time graph, create the corresponding position and acceleration versus time graphs. Construct your graph on a computer program such as Microsoft ExcelB. If you do not...
Constant Positive Accederation Recall that acceleration is the slope of the v-t graph Position vs. Time Time (s1 Position ml Velocity bos) 0 0.2 2.5 0.4 1.5 0.5 0.6 Velocity vs. Time 0.8 1.2 2.5 1.4 0.5 Timet s 1 1.6 Acceleration vs. Time 1.8 0.5 1.5 s utat V ut at Timet S i 5 15
Choose a function to represent the acceleration vs. time graph. How can you calculate the values of the constants of this function from the function representing the position versus time graph? Check how well this works. You can also estimate the values of the constants from the graph. What kinematics quantities do these constants represent? Record the corresponding kinematic quantities and the values of the corresponding errors. From either the position vs. time, velocity vs. time, or acceleration vs. time...
Please help with this Kinematics question! Position and time graphs. Velocity vs. time graph. Consider this position vs. does the corresponding velocity vs. time graph look like? 1. time graph. What (a) Sketch your prediction below * Now reproduce the position graph by walking, and see if the velocity graph comes out the way you expect. 10 t (seconds) Velocity Graph Prediction Velocity Graph Result (m/s) o (m/s) 0 10 6 10 t (seconds) t (seconds) 2. Here's a velocity...