The rotating blade of a blender turns with constant angular acceleration of 1.43 rad/s?. How much time does it take to reach an angular velocity of 35.4 rad/s, starting from rest? For related problemsolving tips and strategies, you may want to view a Video Tutor Solution of Rotation with constant angular acceleretion. Express your answer in seconds. t = 24.8 s Submit Previous Answers v Correct IDENTIFY: Apply the constant angular acceleration equations to the motion. The target variables are t and e – 6n- SET UP: a; = 1.43 rad/s; wo: =0 (starts from rest); wz = 35.4 rad/s; t =? Wz = woz +azt 35.4 rad/s 0 EXECUTE: t = = 24.8 s 1.43 rad/s Part B Through how many revolutions does the blade turn in this time interval? Express your answer in revolutions.

Principles of Physics: A Calculus-Based Text
5th Edition
ISBN:9781133104261
Author:Raymond A. Serway, John W. Jewett
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Chapter10: Rotational Motion
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Please help w part B. TIA

The rotating blade of a blender turns with constant
angular acceleration of 1.43 rad/s?
How much time does it take to reach an angular velocity of 35.4 rad/s, starting from rest?
For related problemsolving tips and strategies, you
may want to view a Video Tutor Solution of Rotation
with constant angular acceleretion.
Express your answer in seconds.
t = 24.8 s
Submit
Previous Answers
v Correct
IDENTIFY: Apply the constant angular acceleration equations to the motion. The target variables are t and 0 - 60
SET UP: az = 1.43 rad/s?; woz = 0 (starts from rest); wz = 35.4 rad/s; t =?
Wz = wo: +azt
35.4 rad/s 0
1.43 rad/s?
Wz
EXECUTE: t =
= 24.8 s
Part B
Through how many revolutions does the blade turn in this time interval?
Express your answer in revolutions.
N = 137.8
rev
Transcribed Image Text:The rotating blade of a blender turns with constant angular acceleration of 1.43 rad/s? How much time does it take to reach an angular velocity of 35.4 rad/s, starting from rest? For related problemsolving tips and strategies, you may want to view a Video Tutor Solution of Rotation with constant angular acceleretion. Express your answer in seconds. t = 24.8 s Submit Previous Answers v Correct IDENTIFY: Apply the constant angular acceleration equations to the motion. The target variables are t and 0 - 60 SET UP: az = 1.43 rad/s?; woz = 0 (starts from rest); wz = 35.4 rad/s; t =? Wz = wo: +azt 35.4 rad/s 0 1.43 rad/s? Wz EXECUTE: t = = 24.8 s Part B Through how many revolutions does the blade turn in this time interval? Express your answer in revolutions. N = 137.8 rev
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