5 A car accelerates uniformly from zero to 13 m/s² in 8 seconds staring from rest. During the next 4seconds, the car decelartes uniformly at a constant rate of 12m/s.a(m/s²)12-> t(s)1211a. Determine the velocity after 12 seconds.b. Distance traveled after 10 secondsC.Distance traveled after 12 seconds.

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Description: 5 A car accelerates uniformly from zero to 13 m/s² in 8 seconds staring from rest. During the next 4seconds, the car decelartes uniformly at a constant rate of 12m/s.a(m/s²)12-> t(s)1211a. Determine the velocity after 12 seconds.b. Distance traveled

Initial velocity = 0 msacceleration for first 8 seconds = 13 ms2acceleration for next 4 seconds = -…

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A car accelerates uniformly from zero to 13 m/s* in 8 seconds staring from rest. During the next 4 seconds, the car decelartes uniformly at a constant rate of 12m/s². a(m/s*) 12- t(s) 12 11 a. Determine the velocity after 12 seconds. b. Distance traveled after 10 seconds C. Distance traveled after 12 seconds.

A car accelerates uniformly from zero to 13 m/s* in 8 seconds staring from rest. During the next 4 seconds, the car decelartes uniformly at a constant rate of 12m/s². a(m/s*) 12- t(s) 12 11 a. Determine the velocity after 12 seconds. b. Distance traveled after 10 seconds C. Distance traveled after 12 seconds.

College Physics

1st Edition

ISBN:9781938168000

Author:Paul Peter Urone, Roger Hinrichs

Publisher:Paul Peter Urone, Roger Hinrichs

Chapter1: Introduction: The Nature Of Science And Physics

Section: Chapter Questions

Problem 10PE: (a) Refer to Table 1.3 to determine the average distance between the Earth and the Sun. Then...

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