PLEASE HELP! the graphs are attached Procedure: Styles Editing 1. Click on the begin button and...
An Atwood machine consists of two masses ?1 and ?2 (with ?1 > ?2) attached to the ends of a light string that passes over a light, frictionless pulley. When the masses are released, the mass ?1 is easily shown to accelerate down with an acceleration ? = ? ((?1 − ?2) / ( ?1 + ?2)). Suppose that ?1 and ?2 are measured as ?1 = 100 ± 1 ???? and ?2 = 50 ± 1 ????. Derive a...
Problem 9.38 10 of 19 > Review Constants Periodic Table In an Atwood machine, block 1 with mass mi and a loss massive block 2 with mass are connected by a string that passes over a solid cylindrical pulley of mass M and radius R. Usemi 0.20 k m 0.16 kg. M = 0.50 kg, and R-0.10 m. (Figure 1) Determine the rotational inertia of the pulley Express your answer with the appropriate units. 1. Value Units Figure Submit Rest...
5. An Atwood machine consists of two masses mi and m2 (with mi > m2) attached to the ends of a light string that passes over a light, frictionless pulley Problem Setup1 FBD ty m2 mi 1-png When the masses are released, the mass mi is easily shown to accelerate down with an acceleration mi m2 mi +m2 Suppose that and m 2 are measured as mn = 100 ± 1 and mg = 50 ± 1, both in grams....
Awood's Machine EXTENSIONS 1. Draw a free body diagram of and another free body diagram of Using these diagrams, apply Newton's second law to each mass. Assume that the tension is the same on each mass and that they have the same acceleration. From these two gustionsfind an expression for the acceleration of min terms of m m and Compare the expression to your result in Step 5 of Analysis (Attach sheet) For each of the experimental runs you made,...
QUESTION 1 An Atwood Machine consists of two masses connected to a cord which is draped over a pulley. In our experiment, what will be true about the masses? Mass 1 will vary with Mass 2 held constant. Mass 1 will vary with Mass 2 held constant. The masses will have a constant sum. The masses will have a constant mass difference. 3 points QUESTION 2 You will get a value for acceleration for each trial from a LoggerPro...
1. In a classical Atwood's machine setup (like this lab), what are the forces that will be discussed? a)The weight of the masses on each pulley and the tension in the string b) The weight of the masses on each pulley. c) The Mtotal times g and the tension on the string. d) The masses on each pulley and the tension in the string 2. What's the total mass of the system in our case of the Atwood's machine? a)...
Rotational Inertia for Point Masses (theoretical valuel Part II: Rotational Inertia of Both Point Masses - Experimental Use equations (2) through (5) to derive an equation for I, the rotational inertia, in terms of m, 1,8, and a. Where m now represents the mass of the hanging mass. Box 2 center of rotation, the total rotational inertia will be MR2 where Mota = M, + M2, the total mass of both point masses. To find the rotational inertia experimentally, a...
Pre-Lab Assignment 1. Draw separate free-body diagrams for each of the masses from Figure 6.1. Assume that mi > m2. Figure 6.1 2. Using the free-body diagrams for each mass, m, and m2, develop an equation for the acceleration of the system, in terms of mì, m, and g. Do this by using Newton's second law in the vertical direction to analyze each mass separately. This will give two equations that can be solved for acceleration. Hint: You may find...
2. Atwood's Table with Two Hanging Masses You have table of width L, masses m1, m2, and m3, two frictionless pulleys, and ideal string. Placing m2 on the table, you attach a bit of string to mass m1 the left pulley, to the left side of m2. Similarly, you hang mass m3 from the right side of m2 using the pulley on the right side of the table. The coefficient of friction of the table is mu. The acceleration of...
In lab, you propel a cart with four known forces while using an ultrasonic motion detector to measure the cart's acceleration. Your data are as follows: Force, F (N) Acceleration, a (m/s2) 0.25 0.50 0.75 1.00 0.5 0.8 1.3 1.8 FON) 1.0 0.8 F= (0.56 kg)a + 0.00 N 0.4 0.2 0.0 a (m/s) 0.0 0.2 0.4 0.6 0.8 1.0 2 4 16 1.8 2.0 Graphing either F versus a or a versus F gives a straight line. In the...