Use the exact values you enter to make later calculations.
A uniformly accelerated car passes three equally spaced traffic
signs. The signs are separated by a distance d = 21 m. The
car passes the first sign at t = 1.3 s, the second sign at
t = 3.7 s, and the third sign at t = 5.5 s.
(a) What is the magnitude of the average velocity of the car
during the time that it is moving between the first two
signs?
(b) What is the magnitude of the average velocity of the car during
the time that it is moving between the second and third
signs?
(c) What is the magnitude of the acceleration of the car?
Use the exact values you enter to make later calculations. A uniformly accelerated car passes three...
A uniformly accelerated car passes three equally spaced traffic signs. The signs are separated by a distance d = 21 m. The car passes the first sign at t = 1.3 s, the second sign at t = 3.3 s, and the third sign at t = 5.0 s. (c) What is the magnitude of the acceleration of the car?
1) . You repeat the same experiment that you did in the lab with the force table using two 100 g masses at 135° and 225°. (a) Complete the table below. Force Mass (kg) Magnitude of Force (N) Angle (degrees) Ax (N) Ay (N) F1 0.100 135 F2 0.100 225 (b) Determine (by calculation) the value of F3 needed to balance the two forces F1 and F2. F3x = F3y = magnitude F3 = direction θ3 = ° counterclockwise from...
An initially motionless test car is accelerated uniformly to 105 km/h in 8.03 seconds before striking a simulated deer. The car is in contact with the faux fawn for 0.455 seconds, after which the car is measured to be traveling at 87.5 km/h. What is the magnitude of the acceleration of the car before the collision? Number m/s What is the magnitude of the average acceleration of the car during the collision? Number m/s What is the magnitude of the...
"Extra 2.6.07 (Multistep) Use the exact values you enter to make later calculations. Push down, Relaxed ; length release from rest A spring has a relaxed length of 29 cm (0.29 m) and its spring stiffness is 6 N/m. You glue a 76 gram block (0.076 kg) to the top of the spring, and push the block down, compressing the spring so its total length is 16 cm. You make sure the block is at rest, then at time t...
Accelerated Motion /4 Name: Calculations and Data Analysis of a Uniformly Accelerated Car 1. Sketch the position time, velocity/time and accelerationtime graphs position velocity acceleratiorn time time time 2. Calculate the velocity at each time (except the first and the last one) by using the values immediately after and before those times. For example, the velocity at point 2 is time(s) position(m) velocity (m/s) Va 0-219 0200 OL9 0.573-0. 337 0to2?-0, 2014 o1 V?.lao-a4c7 laope-080x 7 l'iDoyo l 1.39h 30uo-1C...
it's my first physics class. please help An initially motionless test car is accelerated uniformly to 115 km/h in 8.28 s before striking a simulated deer. The car is in contact with the faux fawn for 0.575 s, after which the car is measured to be traveling at 71.0 km/h. What is the magnitude of the acceleration of the car before the collision? acceleration before collision: m/s2 What is the magnitude of the average acceleration of the car during the...
An initially motionless test car is accelerated uniformly to 115 km/h in 8.23 seconds before striking a simulated deer. The car is in contact with the faux fawn for 0.575 seconds, after which the car is measured to be traveling at 87.5 km/h. Answers must be to the correct number of sig figs. a) What is the magnitude of the acceleration of the car before the collision? b) What is the magnitude of the average acceleration of the car during...
Extra 2.6.07 (Multistep) Use the exact values you enter to make later calculations. Push down, from Relaxed length rest A spring has a relaxed length of 27 cm (0.27 m) and its spring stiffness is 6 N/m. You glue a 83 gram block (0.083 kg) to the top of the spring, and push the block down, compressing the spring so its total length is 17 cm. You make sure the block is at rest, then at time t0 you quickly...
Use the exact values you enter to make later calculations. A group of students performed the same "Newton's Second Law" experiment that you did in class. For this lab, assume g = 9.81 m/s2. They obtained the following results: m1(kg) t1(s) v1(m/s) t2(s) v2(m/s) 0.050 1.2000 0.2500 1.7279 0.5177 0.100 1.2300 0.3240 1.6064 0.7186 0.150 1.1500 0.3820 1.4591 0.9120 0.200 1.1100 0.4240 1.3806 1.0839 where m1 is the value of the hanging mass (including the mass of the hanger), v1...
Use the exact values you enter to make later calculations. A group of students performed the same "Newton's Second Law" experiment that you did in class. For this lab, assume g = 9.81 m/s2. They obtained the following results: m1(kg) t1(s) v1(m/s) t2(s) v2(m/s) 0.050 1.2000 0.2500 1.8108 0.3849 0.100 1.2300 0.3240 1.6360 0.6412 0.150 1.1500 0.3820 1.4768 0.8120 0.200 1.1100 0.4240 1.3935 1.0067 where m1 is the value of the hanging mass (including the mass of the hanger), v1...