Can you please help me to solve this lab.

I already took all the readings with the equipment as you can see in Image 2, 5 and 6.

now i need help with the analysis.

I would really appreciate that.

Thankyou!

Setup Snapshot Introduction & Brief Description of the Concepts When describing the motion of an object, knowing where it is relative to a reference point, how fast and in what direction it is moving, and how it is accelerating, is essential. The Motion Sensor uses pulses of ultrasound that reflect from an object to determine the position of the object. As the object moves, the change in its position is measured many times each second. The change in position from a time to to to is I. In-Lab: Equipment, Experimental Procedure, Data Taking and Preliminary Data Analysis a) Equipment needed: In this lab we need to use the following e 1. ScienceWorkshop 850 Univers: 2. Motion Sensor 3. Track System 4. Flat screen. b) Computer Setup: 1 - Make sure that the ScienceWorkst Record ersal interface commuter 02/16/2023 13:01:41 Activity 1 Snapshot 1. Position the motion sensor at the 5.0cm division of a Track system ruler 2. Position an object with a flat surface on the Track system at a particular distance. The flat surface and the motion sensor need to be positioned perpendicular to the Track system. 3. Record the measured distance from the sensor to the flat surface using the motion sensor by Set Set Run #26 Run #26 Run #26 Position Meter Stick Measurement d1 A Position. Ch 1+2 (m) Difference Error (m) (m) (m) (96) 1 0.10 0.15 0.128 0.03 28.31 N 0.15 0.20 0.155 0.01 3.43 WO 0.20 0.25 0.208 0.01 4.15 0.25 0.30 0.256 0.01 2.24 0.30 ).35 0.305 0.01 1.71 6 0.35 0.40 0.359 0.00 0.94 0.40 0.45 0.404 0.00 0.88 8 0.50 0.55 0.503 0.00 0.69 9 0.65 0.70 0.652 0.00 0.32 10 .75 .80 0.752 D.00 0.29 11 0.85 0.90 0.850 1.87E-4 0.02 12 1.05 1.001 0.00 0.10 13 02/16/2023 13:01:50 Analysis-1 Snapshot Final Data Analysis and Conclusion for activity-1: 1. What is your conclusion about the difference d2- dj in terms of the reliability of the distance measurement using the motion sensor? (Is there a bias?) 2. Is this difference constant for each of the measurement? 3. In general (in theory), a. If the bias depends on the distance, what is your conclusion regarding the velocity? b. If the bias does not depend on the distance: what is your conclusion regarding the velocity? 4. In this particular lab: what you can conclude from measuring the velocity using the actual motion sensor? Is it biased or not biased. 02/16/2023 13:02:01 Activity 2 Snapshot Activity2: 1. Open your favorit a position or velocity graph that shows a particular motion. 2. Hold a flat surface (book or folder) in front of you and turn the monitor so that you can see the screen as you move away from the sensor (make sure you can move at least 2 m away from the sensor). 3. When you are ready stand in front of the sensor, and start recording data. Click on record icon. A graph of your motion will appear. Try to move Z hat your plot matches the Position versus Time plot already on the graph. If necessary. repeat a process in orderto improve the match between your motion an L'" a plot of the graph already there. 4. Determine the slope of the best-fit line for the middle section of your best position versus time plot (red curve) as well as the matching graph (green curve)? a. Perform a linear fit to the data by clicking on this icon ( ) . Highlight the part of the curve of interest, drag the \"highlight screen\" to the desired locations. b. Click on to fit the highlighted area when the fit is done. record the slope and the uncertainty. c. Record the coordinates (position and time) of the point at the beginning and at the end of your motion, move the highlighted area to the desired points. Then calculate the average velocity using these two data points and record it. o2r16r2023 13:02:07 Position 1 Snapshot 2.6 P2 Linear Run #63 2.4 mx + b Set m = 0.200 + 2.5x10-13 b = 1.00 + 1.2x10-#4 2.2 r = 1.000 2.0- Position (m) 1.8- 1.6 Linear mx + b 1.4 m = 0.213 + 0.0014 b = 0.744 + 0.0069 1.2 r = 0.999 1.0 -2 6 10 12 14 t (s) Position 2 02/16/2023 13:02:13 Velocity 2 Snapshot 1.2 V3 V Run #92 61 . 0.240 m/s 1.0 Set A 0.8 0.6 0.4 Velocity (m/s) 0.2 0.0 -0.2 Linear Score -0.4 mindex + b SV3 m = 0.00803 + 3.5x10-+ Run #92 b = -0.332 + 0.022 -0.6 r = 0.999 62.7 -0.8 0 10 20 30 40 50 60 70 80 90 100 Index Velocity 3 02/16/2023 13:02:20 Analysis-2 Snapshot Final Data Analysis and Conclusion for activity-2: 1. What is the percent difference between the slope of your line and the slope of the theoretical line? 2. On the Position plot, what is happening between 5 and 10 seconds? 3. What parts of the plot were easier to match? What parts of the plot were the hardest to match? Why? 4. What is the difference between the parts of the plot with positive slope and the parts with negative slope? 5. Consider the Velocity 2 plot. Where is the acceleration largest? What is the speed at that point? 02/16/2023 13:02:27