FA7. 2-#1. A clever Physics teacher swings a bucket in a 1

Slides:



Advertisements
Similar presentations
Horizontal Circular Motion
Advertisements

To students viewing this on shared drive: answers to problems
Uniform Circular Motion
Suppose a race car speeds along a curve with a constant tangential speed of 75.0 m/s. Neglecting the effects due to the banking of the curve, the centripetal.
Newton’s Laws + Circular Motion. Sect. 5-2: Uniform Circular Motion; Dynamics A particle moving in uniform circular motion at radius r, speed v = constant:
7.2 Applications of Circular Motion
Force and Motion-II: continued Friction and Drag;Circular Motion Lecture 6 Monday:2 February 2004.
06-1 Physics I Class 06 Uniform Circular Motion Newton’s Second Law - Yet Another Review!
05-1 Physics I Class 05 Uniform Circular Motion Newton’s Second Law - Review.
Vertical Circular Motion A demo T8 T8.
1 Ch5 Circular Motion and Force. 2 Centripetal Force - Swinging Ball Any body rotating about a fixed point will experience a centripetal (center seeking)
1 CIRCULAR MOTION 2  r s IN RADIANS length of the arc [ s ] divided by the radius [ r ] subtending the arc.
Can you explain the physics behind the pizza dough twirl & spin?
CIRCULAR MOTION AND OTHER APPLICATIONS OF NEWTON’S LAWS
CIRCULAR MOTION.
RQ8: A car is driving at a constant speed in a perfect circle on a flat parking lot. The centripetal force acting on the car is: A. Gravity. B. The normal.
Vertical Circular Motion
CIRCULAR MOTION. WHAT IS UNIFORM CIRCULAR MOTION The motion of an object in a circle at constant speed. However, direction and therefore velocity are.
Circular Motion Uniform and Non-Uniform. Review Equations for Motion Along One Dimension.
Vertical Circles and Curves. Rounding A Curve Friction between the tires and the road provides the centripetal force needed to keep a car in the curve.
Circular Motion. Rotating Turning about an internal axis Revolving Turning about an external axis.
Chapter 5 - Force and Motion II Friction –Static –Kinetic Incline/Horizontal Plane with friction Drag Forces –Terminal Velocity Uniform Circular Motion.
Circular Motion. Speed/Velocity in a Circle Consider an object moving in a circle around a specific origin. The DISTANCE the object covers in ONE REVOLUTION.
1. A physics teacher twirls a roll of masking tape in a 2.2 m radius vertical circle. What is the minimum velocity at the top of the circle that will keep.
Rotational Motion Uniform Circular Motion 2 Conditions: Uniform speed Circle has a constant radius. Caused by acceleration!
Circular motion About angular motion. Which angle is bigger? 1.5 degrees 2.5 radians 3.5 revolutions
Dynamics of Uniform Circular Motion  An object moving on a circular path of radius r at a constant speed, V  Motion is not on a straight line, the direction.
Worked Examples Uniform Circular Motion. 2 A 2 kg ball on a string is rotated about a circle of radius 10 m. The maximum tension allowed in the string.
YOU WILL LEARN ALL THAT I TEACH YOU Introduction to Uniform Circular Motion.
Velocity = Speed + Direction. rv a a = v 2 /r a = Centripetal acceleration v = tangential velocity r = radius of circle.
4.7 Uniform Circular Motion
Formative Assessment.
Formative Assessment.
To students viewing this on shared drive: answers to problems
When you ride the Spindletop, you move in a circle at a constant speed
Motion in a vertical circle
Vertical Circles.
Non-Uniform circular motion
Uniform Circular Motion
Curved Tracks.
PHYSICS 103: Lecture 10 Agenda for Today: Circular Motion Gravity.
Vertical Circular Motion
Vertical Circular Motion
Aim: How do we explain centripetal motion?
Circular motion - chapter 6
Centripetal Acceleration and Force
Directions in centripetal force problems:
Circular Motion Physics 513.
Introduction to Circular Motion
Intro to Uniform Circular Motion
What forces are involved when objects move in a circular motion?
Uniform Circular Motion
What is “weightlessness?”
Unit 4, Lesson 4: Circular Motion Practice
Graphing Motion Walk Around
Vertical Circles.
4*7 Circular motion: riding on the curves
Class Notes for Accelerated Physics
Vertical Circular Motion
Bell Ringer A charged object is hanging from the ceiling being repelled by another charged object, also hanging from the ceiling. One has a charge of.
Aim: How do we explain centripetal motion?
Carousels and Roller Coasters
Aim: How do we explain centripetal motion?
Circular Motion: Forces.
Topic 2.4 Uniform Circular Motion
Circular Motion Quiz #1.
Origins of Centripetal Force (Vertical Circle)
1. a. What velocity must a car go around a 250
1. You feel “g”s at the bottom of a VC ride
Circular Motion.
Presentation transcript:

FA7. 2-#1. A clever Physics teacher swings a bucket in a 1 FA7.2-#1. A clever Physics teacher swings a bucket in a 1.12 m radius vertical circle at a constant speed. What is the maximum period the motion can have for the water to stay in the bucket? (2.12 s)

FA7. 2-#2. The Zero-G at Oaks Park pulls 1 FA7.2-#2. The Zero-G at Oaks Park pulls 1.80 "g"s of centripetal acceleration in a vertical circle. What "g" force do the riders feel at the top and at the bottom?

1 a. A very clever Physics teacher twirls a bucket in a 1 1 a. A very clever Physics teacher twirls a bucket in a 1.50 m radius vertical circle at a constant speed. What is the maximum period the motion can have for the water to stay in the bucket? (2.46 s)

1 b. A Ferris wheel has an acceleration of 0. 210 "g"s 1 b. A Ferris wheel has an acceleration of 0.210 "g"s. What do the riders feel at the top and at the bottom? (0.790 "g"s top, 1.210 "g"s bottom)

2 a. The Chuck wagon makes riders go in a 4 2 a. The Chuck wagon makes riders go in a 4.60 m radius vertical circle. What is the maximum period the motion can have for the riders to not fall off the ride when they turn upside down at the top? (4.30 s)

2 b. A Zero-G has an acceleration of 1. 650 "g"s 2 b. A Zero-G has an acceleration of 1.650 "g"s. What to the riders feel at the top and at the bottom? (-0.650 "g"s inverted top, 2.650 "g"s bottom)

3 a. The old Looping Thunder had 3. 80 m radius inverting loop 3 a. The old Looping Thunder had 3.80 m radius inverting loop. What was the minimum tangential velocity at the top for the riders to stay on the ride without falling off? (6.10 m/s)

3 b. A Ferris wheel has an acceleration of 0. 140 "g"s 3 b. A Ferris wheel has an acceleration of 0.140 "g"s. What do the riders feel at the top and at the bottom? (0.860 "g"s top, 1.140 "g"s bottom)