College and Engineering Physics Free-Body Diagrams 1 TOC Steps to Solving the Problem Drawings Calculations.

Slides:

Advertisements

Similar presentations

College and Engineering Physics Types, Directions and Magnitudes of the Forces 1 Definition of Force Drawing the Force Dimensions and Units of Force Tension.

Advertisements

Newton’s Laws Review.

Chapter 4 The Laws of Motion.

Forces and Newton’s Laws of Motion Chapter 4. All objects naturally tend to continue moving in the same direction at the same speed. All objects resist.

Section 4-7 Solving Problems with Newton’s Laws; Free Body Diagrams

Newton’s Second Law The net force on a body is equal to the product of the body’s mass and its acceleration.

Make a sketch Problem: A 10.0 kg box is pulled along a horizontal surface by a rope that makes a 30.0 o angle with the horizontal. The tension in the rope.

Follow the same procedure as other force problems, but keep in mind: 1) Draw a free body diagram for EACH object or for each junction in a rope.

Forces applied at an Angle & Inclined Planes

Problem Block A of mass 12 kg and block B of mass 6 kg are connected by a cable that passes over pulley C which can rotate freely. Knowing that the.

Forces and the Laws of MotionSection 4 Click below to watch the Visual Concept. Visual Concept Everyday Forces.

College and Engineering Physics Potential Energy 1 TOC Definition of Potential Energy Examples of Potential Energy Types of Potential Energy.

Lecture 4 Monday: 26 January 2004 Newton’s Laws of Motion.

Physics 101: Lecture 9, Pg 1 Physics 101: Application of Newton's Laws l Review of the different types of forces discussed in Chapter 4: Gravitational,

Physics 101: Lecture 9, Pg 1 Physics 101: Application of Newton's Laws l Review of the different types of forces discussed in Chapter 4: Gravitational,

Newton’s 3rd Law of Motion By: Heather Britton. Newton’s 3rd Law of Motion Newton’s 3rd Law of Motion states Whenever one object exerts a force on a second.

Kinds of Forces Lecturer: Professor Stephen T. Thornton

Force Magnitude 1 Tension Elastic Force Gravity Normal Force Friction Drag.

NEWTON'S LAWS OF MOTION There are three of them.

Force Free-body Diagrams 1 Steps to Solving the Problem Drawings Calculations.

Physics A First Course Energy and Systems Chapter 5.

What is the normal force for a 500 kg object resting on a horizontal surface if a massless rope with a tension of 150 N is acting at a 45 o angle to the.

Chapter 4 Forces and the Laws of Motion. Newton’s First Law An object at rest remains at rest, and an object in motion continues in motion with constant.

Forces and Newton’s Laws of Motion. 4.1 The Concepts of Force and Mass A force is a push or a pull. Arrows are used to represent forces. The length of.

Chapter 4 Dynamics: Newton’s Laws of Motion

College of Engineering CIVE 1150 Fall Rectangular Components of a Force: Unit Vectors Vector components may be expressed as products of the unit.

Physics 1D03 - Lecture 81 Clicker Registration Remember to register your clicker at:

1 Some application & Forces of Friction. 2 Example: When two objects of unequal mass are hung vertically over a frictionless pulley of negligible mass,

 Scalars are quantities that have magnitude only, such as › position › speed › time › mass  Vectors are quantities that have both magnitude and direction,

Warm Up A ski hill has a slope of 40 degrees. If the coefficient of friction between a skier’s skis and the snow is 0.1 what will be the acceleration of.

In this section you will:

College and Engineering Physics Newton’s Laws 1 TOC First Law - Inertia Second Law – Force and Acceleration Third Law – Action and Reaction Introduction.

Bellwork Pick up a free-body diagram sheet and begin working on it.

Lecture 9 Serway and Jewett : 5.7, 5.8

Section 4–4: Everyday Forces Coach Kelsoe Physics Pages 135–143.

Static Equilibrium. 1. Identify the object of interest. 2. Draw a free-body diagram. 3. Choose a coordinate system. 4. Write out Newton's 2nd law for.

Chapter 5 Two Dimensional Forces Equilibrium An object either at rest or moving with a constant velocity is said to be in equilibrium The net force acting.

Ch 4. Forces & Newton’s Laws of Motion

Physics 1D03 - Lecture 81 Newton’s Laws (III) Blocks on ramps, and other problems Serway and Jewett : 5.7, 5.8.

Chapter 8A. Work A PowerPoint Presentation by Paul E. Tippens, Professor of Physics Southern Polytechnic State University A PowerPoint Presentation by.

Chapter 11 Equilibrium. If an object is in equilibrium then its motion is not changing. Therefore, according to Newton's second law, the net force must.

Physics 11 Dynamics 14 – Inclined Planes Mr. Jean.

Isaac Newton: 1600’s, England Force: A push or pull between pairs of objects Mass is a measure of resistance to acceleration.

“ Friendship is like peeing on yourself; everyone can see it, but only you get the warm feeling it brings.” Funnyquotes.com Course web page

PHYS 2010 Nathalie Hoffmann University of Utah

Inclined Plane Problems. Axes for Inclined Planes X axis is parallel to the inclined plane Y axis is perpendicular to the inclined plane Friction force.

4-8 Applications Involving Friction, Inclines

Unit 2: Motion and Force in One Dimension  6.1 Mass, Weight and Gravity  6.2 Friction  6.3 Equilibrium of Forces and Hooke’s Law Chapter 6: Forces and.

What is a force? An interaction between TWO objects. For example, pushes and pulls are forces. We must be careful to think about a force as acting on one.

Review problems Mechanics Revision. A parcel of mass 3kg is released from rest at the top of a straight chute which is fixed at a 40 o angle to the horizontal.

I. Newton’s Laws II. Forces III. Free-Body Diagrams Chapter 4: Newton’s Laws and Forces.

Chapter 4 Forces and Newton’s Laws of Motion. Newtonian mechanics Describes motion and interaction of objects Applicable for speeds much slower than the.

6.1 Mass, Weight and Gravity. Chapter 6 Objectives  Calculate the weight of an object using the strength of gravity (g) and mass.  Describe the difference.

Inclined Planes, Tension, & Multiple Objects Clicker Review

Atwood Machines and Multiple Body Systems

What is the coefficient of friction?

Forces: Equilibrium Examples

Applications of Newton’s Laws Tension and Pulleys

Chapter 4 Test Review.

Free Body diagrams and problem solving

4-6 Weight – the Force of Gravity; and the Normal Force

Blocks 1 and 2 of masses ml and m2, respectively, are connected by a light string, as shown. These blocks are further connected to a block of mass M by.

Aim: How do we explain motion along an inclined plane?

How does an inclined plane make work easier How does an inclined plane make work easier? How does it change the force that is applied to the inclined.

Coverage of the 1st Long test

NEWTON'S LAWS OF MOTION There are three of them.

NEWTON'S LAWS OF MOTION There are three of them.

Presentation transcript:

College and Engineering Physics Free-Body Diagrams 1 TOC Steps to Solving the Problem Drawings Calculations

College and Engineering Physics Free-Body Diagrams 2 TOC Using a free-body diagram… 1.Draw a picture of the problem. 2.Draw the object on which the force is being sought. 3.Draw and label the forces and the acceleration. 4.Choose and draw your axes. 5.Determine the magnitude of the known forces and the acceleration if it is known. 6.Determine the angle of all of the forces and the acceleration (from the x-axis going counterclockwise). 7.Determine the components of each force and the acceleration. 8.Add the components of all of the forces. 9.Use Newton’s second law to solve the problem.

College and Engineering Physics Free-Body Diagrams 3 TOC An example… Bailey-the-Wonder-Dog is walking down a 20 o slope with a constant acceleration of 1m/s 2. Bailey herself has a mass of 35 kg. What is the coefficient of friction acting between each of Bailey’s legs and the slope?

College and Engineering Physics Free-Body Diagrams 4 TOC θ

College and Engineering Physics Free-Body Diagrams 5 TOC θ

College and Engineering Physics Free-Body Diagrams 6 TOC y x θ y x

College and Engineering Physics Free-Body Diagrams 7 TOC y x θ θ

College and Engineering Physics Free-Body Diagrams 8 TOC y x Weight

College and Engineering Physics Free-Body Diagrams 9 TOC y x Normal Force

College and Engineering Physics Free-Body Diagrams 10 TOC y x Friction

College and Engineering Physics Free-Body Diagrams 11 TOC y x Acceleration

College and Engineering Physics Free-Body Diagrams 12 TOC

College and Engineering Physics Free-Body Diagrams 13 TOC

College and Engineering Physics Free-Body Diagrams 14 TOC

College and Engineering Physics Free-Body Diagrams 15 TOC

College and Engineering Physics Free-Body Diagrams 16 TOC m ?? m ?? Rope 1Rope 2 Rope 3 Rope 1Rope 2 Rope 3 Figure A Figure B 120º Sample Problem: Does the rope 1 in Figure A or B have greater tension? LL

College and Engineering Physics Free-Body Diagrams 17 TOC m m ???? Rope 1Rope 2 Rope 3 Figure AFigure B 120º Rope 1Rope 2 Rope 3 LL Sample Problem: Does the rope 1 in Figure A or B have greater tension?

College and Engineering Physics Free-Body Diagrams 18 TOC m ℓ Sample Problem: Determine an algebraic expression for the spring constant of the spring in terms of the mass of the block (m), the displacement from equilibrium (ℓ) and the acceleration due to gravity (g).

College and Engineering Physics Free-Body Diagrams 19 TOC This is the last slide. Click the back button on your browser to return to the Ebook.