Nt1310 Unit 6 Lab

You will first pinch the balloon, then wrap the end around your first two fingers. Next, thread the slack behind the beginning of the balloon and through your fingers. Now pull your fingers out of the loop while holding on the lip of the balloon.

Start by pulling down the middle of the bar of the hanger, creating a square

To begin the experiment, we measured the masses of the two stoppers and the eye bolt used to secure the stoppers that we were using in our apparatus. The mass of the first stopper was 18.8 grams and the mass of the second stopper was 50.5 grams. The mass of the eye bolt was 11.6 grams. The mass of the screw and bolt that secured our hanging mass was given to us as 25 grams. After, we chose six different hanging masses based on stopper mass. We made sure that the hanging mass was always larger than the stopper mass or else we would not be able to get the stopper to spin at a constant velocity. The first three mass ratios we chose was using the stopper with the mass of 18.8 grams and then we used a hanging mass (the mass of the screw and bolt is included) of 65 grams, 85 grams, and 105 grams. This gave the three mass

Mass of the Fulcrum Clamp: _________________(grams) Mass of Clamp with V-wire: ________________(grams) Mass of Weight Hanger: __________________(grams) Balancing point (center of mass) of meter stick, x0 = ____________(cm) Values Case 1 m1 = 100 g m2 = 200 g x1 = 15 cm x2 =_________ Moment (lever) arms r1 = ___________ r2 = ___________ Results *(see note above) τcc = ___________ τcw = ___________ % Diff. __________ Case 2 m1 = 100 g m2 = 200 g m3 = 50 g

4. Take a piece of dialysis(as cut earlier), find the mass of the dialysis, and the zero out the scale on

1.Measure the original weight of the weigh boat on a balance because you will need to subtract the measurements of the elements and then get the exact mass.

Going counter clockwise, stretch the string a few inches down and loop it around the hoop. Stretch the string a few inches to the right, wrap it around the loop. (Keep the process going until you reach the beginning). The thread should be lose and tightened when you continue the weaving. (When using the hoop with the 3 inches in diameter, the traditional way is to wrap the hoop 8 times).

Step #7- Measure the diameter in millimeters with a ruler, and jot down what the answer is on trial one.

Repeat steps 6 and 7. Record the information for final mass and change in mass for trial two

Weigh a dry 25 mL graduated cylinder on the digital scale. Record the mass in Data Table 5.

In 4.1 you will have 5 different surfaces, you will have to slide the block over each surface 4 times the the spring scale reading newtons. After when you are all you will have to average the number you got. Like for table top trail 1(.75) trail 2(.75) trail 3( 1) trail 4(,75) add them up and divide by three 0.81(N). The average for waxed paper was 0.43(N), for paper towel 0.37(N), fine sand paper 1.56(N) and coarse

The third DIY solution uses a safety pin and is explained on Lifehacker by Patrick Allan. Once again with the drawstring fully removed, attach the safety pin to the string by poking the pin through the material. Now that the pin is attached, use this pin as a guide to feeding the string back through the material little by little. This method requires a lot of time and patience and the string has to be fully removed.

Step 9: Because we measured the lengths in centimeters rather than meters, we need to calculate are ‘g’ value into m/s2 so we can compare it to the SI unit for acceleration due to gravity. (Eg. 981.4/100 = 9.81 m/s2)

As a result of trail and error method we find the angle for the third pulley and the mass that should had be suspended from it. This will balance the forces deployed on the strings due to the other two masses. While the third force is defined as the equilibrant (������⃗������) Since it is the force that establishes the equilibrium. It is also the negative of the resultant -������⃗������ = ������⃗������ = ������⃗ ������ + ������⃗������. We gathered and recorded the mass and the angle required for the third pulley to enable to put the system into the equilibrium in table 1.

Table 1 & 2: First, find the mass of the wooden block and record the data. Then place the wooden block on the inclined plane (at 0o) with the wide side down. The height of the pulley should be the same height as the screw location on the wooden block. Then hang a weight on the opposite side of the hanger and add weights until block starts to move with a constant velocity (push block to overcome fs¬). Then record the resulted weight of the hanger in Table 1 (as F). Add 500 g to the wooden block and repeat the process. Replace 500 g with 1 kg on the wooden block. Repeat the process described above.