PROBLEM 4.1. M B 0: kn F B kn kn F C kn : kn 0?

Size: px
Start display at page:

Download "PROBLEM 4.1. M B 0: kn F B kn kn F C kn : kn 0?"

Transcription

1 Chapter 4 PROBLEM 4. The boom on a 4300-kg truck is used to unload a pallet of shingles of mass 600 kg. Determine the reaction at each of the two (a) rear wheels B, (b) front wheels C. W m g 600 kg9.8 m/s 5696 N W kn W G m g G 4300 kg 9.8 m/s 4 83 N W G 4.83 kn (a) rom f.b.d. of truck with boom MC 0: kn cos5 m B m (b) rom f.b.d. of truck with boom 4.83 kn 0.5 m B 4.66 kn 5. M B 0: kn 6cos5 4.3 m 4.83 kn m C m C kn 5. 0: kn 0? y Check: B C.3 kn 6.8 kn kn 0 ok

2 675 N 675 N 75 mm PROBLEM 4.4 the beam and loading shown, determine the range of values of the distance a f which the reaction at B does not eceed 5 N downward 450 N upward..5 N 00 mm 50 mm 50 mm 675 N 675 N To determine a ma the two 675 N fces need to be as close to B without having the vertical upward fce at B eceed 450 N rom f.b.d. of beam with B = 450 N.5 N 450 N ÂM D = 0: (675 N) (a ma 00 mm) (675 N) (a ma 5 mm) (.5 N) (50 mm) + (450 N) (00 mm) = 0 a ma = 5 mm 675 N 675 N 5 N.5 N To determine a min the two 675 N fces need to be as close to without having the vertical downward fce at B eceed 5 N. rom f.b.d. of beam with B = 5 N ÂM D = 0: (675 N) (00 mm a min ) (675 N) (a min 5 mm) (.5 N) (50 mm) (5 N) (00 mm) = 0 Therefe, a min = 5 mm 5 mm a 5 mm t

3 50 mm 0 mm 40 mm D C B E 0 mm PROBLEM 4.5 follower BCD is held against a circular cam by a stretched spring, which eerts a fce of N f the position shown. Knowing that the tension in rod BE is 4 N, determine (a) the fce eerted on the roller at, (b) the reaction at bearing C. 60 Note: rom f.b.d. of BCD = cos60 (a) rom f.b.d. of BCD sin 60 y 3 MC 0: 40 mm N 40 mm 4 N 0 mm 0 8 N 8.0 N (b) rom f.b.d. of BCD 0: C 4 N 8 N cos N C 8.0 N C 0: C N 8 Nsin 60 0 y y N C 3.5 N C y y Then y C C C N Cy and tan tan 6.68 C 8 C 8. N 6.6

4 B 90 N 90 N 300 mm 300 mm B 90 Nm 50 mm 9 Nm50 mm 45 N N 50 mm 50 mm 5 mm 5 mm (a) (b) PROBLEM 4.4 steel rod is bent to fm a mounting bracket. each of the mounting brackets and loadings shown, determine the reactions at and B. (a) 90 N (a) rom f.b.d. of mounting bracket  M = 0: B (00 mm) (90 N) (300 mm) + (45 N) (50 mm) 9000 N.mm = 0 \ B = N 9000 N.mm 45 N  = 0: N 45 N + = 0 \ = 3.75 N B = 68.8 N t = 3.8 N  y = 0: 90 N + y = 0 \ y = 90 N y = 90 N y Then = + = = 3.9 N and q = tan y b g b g KJ = tan KJ =.834 = t (b) (b) rom f.b.d. of mounting bracket 90 N  M = 0: (B cos 45 ) (00 mm) (90 N) (300 mm) 9000 N.mm + (45 N) (50 mm) = N.mm 45 N \ B = N B = t  = 0: + ( 38.65) cos N = 0 \ = 3.75 N = 3.8 N

5 PROBLEM 4.4 CONTNUED Â y = 0: y (38.65 N) sin N = 0 \ y = N y = 78.8 N y b g b g Then = + = = N and q = tan y KJ = tan KJ = 0.5 = 7.8 N 0. t

6 PROBLEM 4.3 Neglecting friction, determine the tension in cable BD and the reaction at suppt C. 65 mm 35 N 50 mm 50 mm rom f.b.d. of inverted T-member  M C = 0: T (65 mm) T (50 mm) (35 N) (50 mm) = 0 \ T = 90 N T = 90 N t  = 0: C 90 N = 0 35 N \ C = 90 N C = 90 N  y = 0: C y + 90 N 35 N = 0 \ C y = 45 N C y = 45 N y bg bg Then C = C + C = = 00.6 N and q = tan C C y KJ = tan K J = C = 00.6 N 6.6 t

7 PROBLEM 4.39 B q O C 5 N 60 Rod BCD is bent in the shape of a circular arc of radius 80 mm and rests against frictionless surfaces at and D. Knowing that the collar at B can move freely on the rod, determine (a) the value of f which the tension in cd OB is as small as possible, (b) the cresponding value of the tension, (c) the reactions at and D. 45 D 45 (a) rom f.b.d. of rod BCD M 0: 5 N cos60 d Tcos d 0 (b) rom Equation () E OE OE.5 N T cos () T is minimum when cos is maimum, 0.5 N T.5 N cos0 T.50 N min (c) 0: N cos 45 N cos 45.5 N D 5 N cos60 0 N N 0 ND N D () 0: N sin 45N sin 45 5 N sin 60 0 y D N N N (3) Substituting Equation () into Equation (3), D N N N and N 5.3 N 45.0 N 5.3 N 45.0 D

8 0.45 m 0.45 m 0.45 m B B B PROBLEM N weight can be suppted in the three different ways shown. Knowing that the pulleys have a 00 mm radius, determine the reaction at in each case. (a) 90 N 90 N 90 N (b) (c) (a) rom f.b.d. of B 90 N 0: 0  y = 0: y 90 N = 0 y = 90 N and = 90 N t  M = 0: M (90 N) (0.45 m) = 0 \ M = N.m M = 33.8 N.m t 90 N rom f.b.d. of B  = 0: 90 N = 0 = 90 N 90 N  y = 0: y 90 N = 0 y = 90 N y bg bg Then = + = = 7.79 N \ = 7.3 N 45 t  M = 0: M + (90 N) (0. m) (90 N) (0.45 m + 0. m) = 0 \ M = N.m M = 33.8 N.m t

9 PROBLEM 4.45 CONTNUED (c) rom f.b.d. of B 0: 0  y = 0: y 90 N 90 N = 0 y = 80 N 90 N 90 N and = 80 N t  M = 0: M (90 N) (0.45 m 0. m) (90 N) (0.45 m + 0. m) = 0 \ M = 67.5 N.m M = 67.5 N.m t

10 PROBLEM 4.54 slender rod B, of weight W, is attached to blocks and B, which move freely in the guides shown. The blocks are connected by an elastic cd which passes over a pulley at C. (a) Epress the tension in the cd in terms of W and. (b) Determine the value of f which the tension in the cd is equal to 3W. (a) rom f.b.d. of rod B l MC 0: Tlsin W cos Tlcos 0 T W cos cos sin Dividing both numerat and denominat by cos, T W tan T W tan (b) T 3 W, 3W W tan tan 6 tan

11 00 mm 00 mm PROBLEM 4.63 Hizontal and vertical links are hinged to a wheel, and fces are applied to the links as shown. Knowing that a 75 mm, determine the value of P and the reaction at. 00 mm 95 N s shown on the f.b.d., the wheel is a three-fce body. Let point D be the intersection of the three fces. 75 mm rom fce triangle 5 = P 00 = \ P = (95 N) = 6.67 N 95 N P = 6.7 N t 95 N and = 5 75 q = tan (95 N) = N K J = \ = 58.3 N 36.9 t

12 PROBLEM 4.77 D. m 30 C 75 B 0.4 m small hoist is mounted on the back of a pickup truck and is used to lift a 0-kg crate. Determine (a) the fce eerted on the hoist by the hydraulic cylinder BC, (b) the reaction at. irst note W mg 0 kg 9.8 m/s 77. N rom the geometry of the three fces acting on the small hoist. m cos m D y. m sin m D and y tan m tan m BE D Then ybe 0.4 m tan tan D pplying the law of sines to the fce triangle, W B sin sin sin5 (a) (b) 77. N B sin.634 sin sin5 B 86.9 N B.8 kn N 0.68 kn

13 PROBLEM 4.79 modified peavey is used to lift a 0.-m-diameter log of mass 36 kg. Knowing that 45 and that the fce eerted at C by the wker is perpendicular to the handle of the peavey, determine (a) the fce eerted at C, (b) the reaction at. irst note W mg 36 kg 9.8 m/s N rom the geometry of the three fces acting on the modified peavey. m tan m 0. m pplying the law of sines to the fce triangle, W C sin sin sin N C sin sin sin35 (a) C N C 45.4 N 45.0 (b) N 387 N 85.

14 PROBLEM kg slender rod of length L is attached to collars which can slide freely along the guides shown. Knowing that the rod is in equilibrium and that 5, determine (a) the angle that the rod fms with the vertical, (b) the reactions at and B. (a) s shown in the f.b.d. of the slender rod B, the three fces intersect at C. rom the geometry of the fces where tan y CB BC and CB L sin y Lcos tan tan tan tan BC 5 (b) W mg tan tan kg9.8 m/s 98. N 43.0 rom fce triangle W tan 98. N tan N 45.7 N and B W 98. N 08.4 N cos cos 5 B 08. N 65.0

15 y z 50 N T 50 mm C 00 mm 50 mm E D B 5 mm 90 mm PROBLEM 4.99 the ption of a machine shown, the 00 mm-diameter pulley and wheel B are fied to a shaft suppted by bearings at C and D. The spring of constant 360 N/m is unstretched when 0, and the bearing at C does not eert any aial fce. Knowing that 80 and that the machine is at rest and in equilibrium, determine (a) the tension T, (b) the reactions at C and D. Neglect the weights of the shaft, pulley, and wheel. 300 mm 5 mm 5 mm 50 N 50 mm 50 mm 90 mm irst, determine the spring fce, E, at q = 80 E = k s where k s = 360 N/m = (y E ) final (y E ) initial = (300 mm + 90 mm) (300 mm 90 mm) = 80 mm \ E = (360 N/m) (80/000 m) = 64.8 N (a) rom f.b.d. of machine part  M = 0: (50 N) (50 mm) T (50 mm) = 0 \ T = 50 N T = 50 N t (b)  M D (z-ais) = 0: C y (50 mm) E (50 mm + 5 mm) = 0 C y (50 mm) 64.8 N (75 mm) = 0 \ C y = 9.44 N C y = (9.44 N) j  M D (y-ais) = 0: C z (50 mm) + (50 N) + (00 mm) (50 mm) (00 mm) = 0 \ C z = 0 N C z = (0 N) k and C = (9.4 N) j (0 N)k t

16 PROBLEM 4.99 CONTNUED Â = 0: D = 0 Â M C (z-ais) = 0: D y (50 mm) E (300 mm + 5 mm) = 0 D y (50 mm) 64.8 (35 mm) = 0 \ D y = 84.4 N D y = (84. N) j ÂM C (y-ais) = 0: (50 N) (50 mm) D z (50 mm) = 0 \ D z = 80 N D z = (80 N) k and D = (84. N) j (80 N) k t

17 PROBLEM 4.03 The mm square plate shown has a mass of 5 kg and is suppted by three vertical wires. Determine the mass and location of the lightest block which should be placed on the plate if the tensions in the three cables are to be equal. irst note W m g G p 5 kg 9.8 m/s 45.5 N rom f.b.d. of plate W mg m 9.8 m/s 9.8m N 0: 3T W W 0 () y G M 0: W 00 mm W z T 00 mm T 00 mm 0 G 300T 00W Wz 0 () G M 0: T 60 mm W 00 mm W 0 z Eliminate T by fming 00 Eq. Eq. G 30T 00W W 0 (3) G 00W W z 0 z 00 mm 0 z 00 mm, okay Now, 3 Eq Eq. yields 3 30T 3 00 W 3W 30 3T 30W 30W 0 G G

18 PROBLEM 4.03 CONTNUED 0W 30 3 W 0 G W 0 W 3 30 W The smallest value of W will result in the smallest value of W since W G is given. G G and then Use 00 mm ma W 0 W G W 45.5 N W G N minimum 4 4 W N and m.7857 kg g 9.8 m/s m.786 kg at 00 mm, z 00 mm

19 PROBLEM 4.4. m 0.9 m 0.6 m.8 m n.4 m-long boom is held by a ball-and-socket joint at C and by two cables D and BE. Determine the tension in each cable and the reaction at C. 0.3 m.4 m 880 N rom f.b.d. of boom  M CE = 0: l CE (r /C T D ) + l CE (r /C ) = 0 b g b g where l CE = 0. 6 m j m k = b0. 6g + b0. 9g m \ r /C = (.4 m) i 7. (0.6 j 0.9 k) b g b g b g b g b g b g KJ T D T D = l D T D = - 4. m i m j +. m k TD m = = (880 N) j 7. KJ (.4 i j +. k) T D KJ = 0

20 PROBLEM 4.4 CONTNUED ( ) T D (.6) = 0 \ T D = 60 N T D = 60 N t where l CD = Â M CD = 0: l CD (r B/C T BE ) + l CD (r /C ) b g b g 03. m j+. m k = 53. m (0.3 j +. k) 53. r B/C = (.8 m) i b g b g b g b g b g b g T BE = l BE T BE = - 8. m i m j k TBE = m T. KJ BE (.8 i j 0.9 k) \ T BE = 0 ( ) T BE. + (.88) 880 = 0 Â = 0: C (T D ) (T BE ) = 0 C \ T BE = N T BE = N t KJ KJ = 0 \ C = 4480 N Â y = 0: C y + (T D ) y + (T BE ) y 880 N = 0 C y KJ KJ \ C y = 3.33 N Â z = 0: C z + (T D ) z (T BE ) z = 0 C z KJ N = KJ = 0 \ C z = 30 N C = (4480 N) i (3.3 N) j + (30 N) k t

21 y PROBLEM 4. The rectangular plate shown has a mass of 5 kg and is held in the position shown by hinges and B and cable E. ssuming that the hinge at B does not eert any aial thrust, determine (a) the tension in the cable, (b) the reactions at and B. z irst note W mg 5 kg 9.8 m/s 47.5 N 0.08 mi 0.5 m j 0. mk TE TE ETE T E i j k m 0.33 rom f.b.d. of rectangular plate T M 0: 47.5 N 0. m 0. m 0 E y Nm T E 0. m TE 97.9 N 0: T 0 E T 97. N E N N

22 PROBLEM 4. CONTNUED M -ais 0: 0.3 m T 0.04 m W 0.5 m 0 y E Bz y 0.5 y 0.3 m 97.9 N 0.04 m 47.5 N 0.5 m y N MBy-ais 0: z 0.3 m TE 0. m TE 0.04 m 0 z z0.3 m TE 0. m TE 0.04 m z 0: W T B 0 y y E y y N N 47.5 N 97.9 N B y and 3.5 N i 63.8 N j 7.85 N k B y 9.8 N 0: T B 0 z z E z z N 97.9 N B z B z N and B 9.8 N j 66.7 N k

C B A T 3 T 2 T 1. 1. What is the magnitude of the force T 1? A) 37.5 N B) 75.0 N C) 113 N D) 157 N E) 192 N

C B A T 3 T 2 T 1. 1. What is the magnitude of the force T 1? A) 37.5 N B) 75.0 N C) 113 N D) 157 N E) 192 N Three boxes are connected by massless strings and are resting on a frictionless table. Each box has a mass of 15 kg, and the tension T 1 in the right string is accelerating the boxes to the right at a

More information

CE 201 (STATICS) DR. SHAMSHAD AHMAD CIVIL ENGINEERING ENGINEERING MECHANICS-STATICS

CE 201 (STATICS) DR. SHAMSHAD AHMAD CIVIL ENGINEERING ENGINEERING MECHANICS-STATICS COURSE: CE 201 (STATICS) LECTURE NO.: 28 to 30 FACULTY: DR. SHAMSHAD AHMAD DEPARTMENT: CIVIL ENGINEERING UNIVERSITY: KING FAHD UNIVERSITY OF PETROLEUM & MINERALS, DHAHRAN, SAUDI ARABIA TEXT BOOK: ENGINEERING

More information

AP Physics - Chapter 8 Practice Test

AP Physics - Chapter 8 Practice Test AP Physics - Chapter 8 Practice Test Multiple Choice Identify the choice that best completes the statement or answers the question. 1. A single conservative force F x = (6.0x 12) N (x is in m) acts on

More information

Problem Set 1. Ans: a = 1.74 m/s 2, t = 4.80 s

Problem Set 1. Ans: a = 1.74 m/s 2, t = 4.80 s Problem Set 1 1.1 A bicyclist starts from rest and after traveling along a straight path a distance of 20 m reaches a speed of 30 km/h. Determine her constant acceleration. How long does it take her to

More information

CHAPTER 15 FORCE, MASS AND ACCELERATION

CHAPTER 15 FORCE, MASS AND ACCELERATION CHAPTER 5 FORCE, MASS AND ACCELERATION EXERCISE 83, Page 9. A car initially at rest accelerates uniformly to a speed of 55 km/h in 4 s. Determine the accelerating force required if the mass of the car

More information

Chapter 4. Forces and Newton s Laws of Motion. continued

Chapter 4. Forces and Newton s Laws of Motion. continued Chapter 4 Forces and Newton s Laws of Motion continued 4.9 Static and Kinetic Frictional Forces When an object is in contact with a surface forces can act on the objects. The component of this force acting

More information

Physics 201 Homework 8

Physics 201 Homework 8 Physics 201 Homework 8 Feb 27, 2013 1. A ceiling fan is turned on and a net torque of 1.8 N-m is applied to the blades. 8.2 rad/s 2 The blades have a total moment of inertia of 0.22 kg-m 2. What is the

More information

COMPLEX STRESS TUTORIAL 3 COMPLEX STRESS AND STRAIN

COMPLEX STRESS TUTORIAL 3 COMPLEX STRESS AND STRAIN COMPLX STRSS TUTORIAL COMPLX STRSS AND STRAIN This tutorial is not part of the decel unit mechanical Principles but covers elements of the following sllabi. o Parts of the ngineering Council eam subject

More information

Mechanical Principles

Mechanical Principles Unit 4: Mechanical Principles Unit code: F/60/450 QCF level: 5 Credit value: 5 OUTCOME 3 POWER TRANSMISSION TUTORIAL BELT DRIVES 3 Power Transmission Belt drives: flat and v-section belts; limiting coefficient

More information

MECHANICAL PRINCIPLES OUTCOME 4 MECHANICAL POWER TRANSMISSION TUTORIAL 1 SIMPLE MACHINES

MECHANICAL PRINCIPLES OUTCOME 4 MECHANICAL POWER TRANSMISSION TUTORIAL 1 SIMPLE MACHINES MECHANICAL PRINCIPLES OUTCOME 4 MECHANICAL POWER TRANSMISSION TUTORIAL 1 SIMPLE MACHINES Simple machines: lifting devices e.g. lever systems, inclined plane, screw jack, pulley blocks, Weston differential

More information

4.2 Free Body Diagrams

4.2 Free Body Diagrams CE297-FA09-Ch4 Page 1 Friday, September 18, 2009 12:11 AM Chapter 4: Equilibrium of Rigid Bodies A (rigid) body is said to in equilibrium if the vector sum of ALL forces and all their moments taken about

More information

SOLUTION 6 6. Determine the force in each member of the truss, and state if the members are in tension or compression.

SOLUTION 6 6. Determine the force in each member of the truss, and state if the members are in tension or compression. 6 6. etermine the force in each member of the truss, and state if the members are in tension or compression. 600 N 4 m Method of Joints: We will begin by analyzing the equilibrium of joint, and then proceed

More information

STRESS AND DEFORMATION ANALYSIS OF LINEAR ELASTIC BARS IN TENSION

STRESS AND DEFORMATION ANALYSIS OF LINEAR ELASTIC BARS IN TENSION Chapter 11 STRESS AND DEFORMATION ANALYSIS OF LINEAR ELASTIC BARS IN TENSION Figure 11.1: In Chapter10, the equilibrium, kinematic and constitutive equations for a general three-dimensional solid deformable

More information

Chapter 1: Statics. A) Newtonian Mechanics B) Relativistic Mechanics

Chapter 1: Statics. A) Newtonian Mechanics B) Relativistic Mechanics Chapter 1: Statics 1. The subject of mechanics deals with what happens to a body when is / are applied to it. A) magnetic field B) heat C ) forces D) neutrons E) lasers 2. still remains the basis of most

More information

3 Work, Power and Energy

3 Work, Power and Energy 3 Work, Power and Energy At the end of this section you should be able to: a. describe potential energy as energy due to position and derive potential energy as mgh b. describe kinetic energy as energy

More information

Copyright 2011 Casa Software Ltd. www.casaxps.com. Centre of Mass

Copyright 2011 Casa Software Ltd. www.casaxps.com. Centre of Mass Centre of Mass A central theme in mathematical modelling is that of reducing complex problems to simpler, and hopefully, equivalent problems for which mathematical analysis is possible. The concept of

More information

5. Forces and Motion-I. Force is an interaction that causes the acceleration of a body. A vector quantity.

5. Forces and Motion-I. Force is an interaction that causes the acceleration of a body. A vector quantity. 5. Forces and Motion-I 1 Force is an interaction that causes the acceleration of a body. A vector quantity. Newton's First Law: Consider a body on which no net force acts. If the body is at rest, it will

More information

Angular acceleration α

Angular acceleration α Angular Acceleration Angular acceleration α measures how rapidly the angular velocity is changing: Slide 7-0 Linear and Circular Motion Compared Slide 7- Linear and Circular Kinematics Compared Slide 7-

More information

Solution: The free-body diagram is shown to the right. Applying the equilibrium equations

Solution: The free-body diagram is shown to the right. Applying the equilibrium equations Problem 3.1 In ctive Eample 3.1, suppose that the angle between the ramp supporting the car is increased from 20 to 30. raw the free-bod diagram of the car showing the new geometr. Suppose that the cable

More information

F f v 1 = c100(10 3 ) m h da 1h 3600 s b =

F f v 1 = c100(10 3 ) m h da 1h 3600 s b = 14 11. The 2-Mg car has a velocity of v 1 = 100km>h when the v 1 100 km/h driver sees an obstacle in front of the car. It takes 0.75 s for him to react and lock the brakes, causing the car to skid. If

More information

Weight The weight of an object is defined as the gravitational force acting on the object. Unit: Newton (N)

Weight The weight of an object is defined as the gravitational force acting on the object. Unit: Newton (N) Gravitational Field A gravitational field as a region in which an object experiences a force due to gravitational attraction Gravitational Field Strength The gravitational field strength at a point in

More information

P4 Stress and Strain Dr. A.B. Zavatsky MT07 Lecture 3 Statically Indeterminate Structures

P4 Stress and Strain Dr. A.B. Zavatsky MT07 Lecture 3 Statically Indeterminate Structures 4 Stress and Strain Dr... Zavatsky MT07 ecture 3 Statically Indeterminate Structures Statically determinate structures. Statically indeterminate structures (equations of equilibrium, compatibility, and

More information

MECHANICS OF SOLIDS - BEAMS TUTORIAL 2 SHEAR FORCE AND BENDING MOMENTS IN BEAMS

MECHANICS OF SOLIDS - BEAMS TUTORIAL 2 SHEAR FORCE AND BENDING MOMENTS IN BEAMS MECHANICS OF SOLIDS - BEAMS TUTORIAL 2 SHEAR FORCE AND BENDING MOMENTS IN BEAMS This is the second tutorial on bending of beams. You should judge your progress by completing the self assessment exercises.

More information

Name Class. Date Section. Test Form A Chapter 11. Chapter 11 Test Bank 155

Name Class. Date Section. Test Form A Chapter 11. Chapter 11 Test Bank 155 Chapter Test Bank 55 Test Form A Chapter Name Class Date Section. Find a unit vector in the direction of v if v is the vector from P,, 3 to Q,, 0. (a) 3i 3j 3k (b) i j k 3 i 3 j 3 k 3 i 3 j 3 k. Calculate

More information

Chapter 11 Equilibrium

Chapter 11 Equilibrium 11.1 The First Condition of Equilibrium The first condition of equilibrium deals with the forces that cause possible translations of a body. The simplest way to define the translational equilibrium of

More information

ENGINEERING SCIENCE H1 OUTCOME 1 - TUTORIAL 3 BENDING MOMENTS EDEXCEL HNC/D ENGINEERING SCIENCE LEVEL 4 H1 FORMERLY UNIT 21718P

ENGINEERING SCIENCE H1 OUTCOME 1 - TUTORIAL 3 BENDING MOMENTS EDEXCEL HNC/D ENGINEERING SCIENCE LEVEL 4 H1 FORMERLY UNIT 21718P ENGINEERING SCIENCE H1 OUTCOME 1 - TUTORIAL 3 BENDING MOMENTS EDEXCEL HNC/D ENGINEERING SCIENCE LEVEL 4 H1 FORMERLY UNIT 21718P This material is duplicated in the Mechanical Principles module H2 and those

More information

Physics 2A, Sec B00: Mechanics -- Winter 2011 Instructor: B. Grinstein Final Exam

Physics 2A, Sec B00: Mechanics -- Winter 2011 Instructor: B. Grinstein Final Exam Physics 2A, Sec B00: Mechanics -- Winter 2011 Instructor: B. Grinstein Final Exam INSTRUCTIONS: Use a pencil #2 to fill your scantron. Write your code number and bubble it in under "EXAM NUMBER;" an entry

More information

Stresses in Beam (Basic Topics)

Stresses in Beam (Basic Topics) Chapter 5 Stresses in Beam (Basic Topics) 5.1 Introduction Beam : loads acting transversely to the longitudinal axis the loads create shear forces and bending moments, stresses and strains due to V and

More information

PHY231 Section 2, Form A March 22, 2012. 1. Which one of the following statements concerning kinetic energy is true?

PHY231 Section 2, Form A March 22, 2012. 1. Which one of the following statements concerning kinetic energy is true? 1. Which one of the following statements concerning kinetic energy is true? A) Kinetic energy can be measured in watts. B) Kinetic energy is always equal to the potential energy. C) Kinetic energy is always

More information

Acceleration due to Gravity

Acceleration due to Gravity Acceleration due to Gravity 1 Object To determine the acceleration due to gravity by different methods. 2 Apparatus Balance, ball bearing, clamps, electric timers, meter stick, paper strips, precision

More information

PHY231 Section 1, Form B March 22, 2012

PHY231 Section 1, Form B March 22, 2012 1. A car enters a horizontal, curved roadbed of radius 50 m. The coefficient of static friction between the tires and the roadbed is 0.20. What is the maximum speed with which the car can safely negotiate

More information

Newton s Law of Motion

Newton s Law of Motion chapter 5 Newton s Law of Motion Static system 1. Hanging two identical masses Context in the textbook: Section 5.3, combination of forces, Example 4. Vertical motion without friction 2. Elevator: Decelerating

More information

www.mathsbox.org.uk Displacement (x) Velocity (v) Acceleration (a) x = f(t) differentiate v = dx Acceleration Velocity (v) Displacement x

www.mathsbox.org.uk Displacement (x) Velocity (v) Acceleration (a) x = f(t) differentiate v = dx Acceleration Velocity (v) Displacement x Mechanics 2 : Revision Notes 1. Kinematics and variable acceleration Displacement (x) Velocity (v) Acceleration (a) x = f(t) differentiate v = dx differentiate a = dv = d2 x dt dt dt 2 Acceleration Velocity

More information

Practice Test SHM with Answers

Practice Test SHM with Answers Practice Test SHM with Answers MPC 1) If we double the frequency of a system undergoing simple harmonic motion, which of the following statements about that system are true? (There could be more than one

More information

PHYSICS 111 HOMEWORK SOLUTION, week 4, chapter 5, sec 1-7. February 13, 2013

PHYSICS 111 HOMEWORK SOLUTION, week 4, chapter 5, sec 1-7. February 13, 2013 PHYSICS 111 HOMEWORK SOLUTION, week 4, chapter 5, sec 1-7 February 13, 2013 0.1 A 2.00-kg object undergoes an acceleration given by a = (6.00î + 4.00ĵ)m/s 2 a) Find the resultatnt force acting on the object

More information

Solid Mechanics. Stress. What you ll learn: Motivation

Solid Mechanics. Stress. What you ll learn: Motivation Solid Mechanics Stress What you ll learn: What is stress? Why stress is important? What are normal and shear stresses? What is strain? Hooke s law (relationship between stress and strain) Stress strain

More information

Practice Exam Three Solutions

Practice Exam Three Solutions MASSACHUSETTS INSTITUTE OF TECHNOLOGY Department of Physics Physics 8.01T Fall Term 2004 Practice Exam Three Solutions Problem 1a) (5 points) Collisions and Center of Mass Reference Frame In the lab frame,

More information

Physics 41 HW Set 1 Chapter 15

Physics 41 HW Set 1 Chapter 15 Physics 4 HW Set Chapter 5 Serway 8 th OC:, 4, 7 CQ: 4, 8 P: 4, 5, 8, 8, 0, 9,, 4, 9, 4, 5, 5 Discussion Problems:, 57, 59, 67, 74 OC CQ P: 4, 5, 8, 8, 0, 9,, 4, 9, 4, 5, 5 Discussion Problems:, 57, 59,

More information

PROBLEM 2.9. sin 75 sin 65. R = 665 lb. sin 75 sin 40

PROBLEM 2.9. sin 75 sin 65. R = 665 lb. sin 75 sin 40 POBLEM 2.9 A telephone cable is clamped at A to the pole AB. Knowing that the tension in the right-hand portion of the cable is T 2 1000 lb, determine b trigonometr (a) the required tension T 1 in the

More information

Ideal Cable. Linear Spring - 1. Cables, Springs and Pulleys

Ideal Cable. Linear Spring - 1. Cables, Springs and Pulleys Cables, Springs and Pulleys ME 202 Ideal Cable Neglect weight (massless) Neglect bending stiffness Force parallel to cable Force only tensile (cable taut) Neglect stretching (inextensible) 1 2 Sketch a

More information

SOLID MECHANICS DYNAMICS TUTORIAL PULLEY DRIVE SYSTEMS. This work covers elements of the syllabus for the Edexcel module HNC/D Mechanical Principles.

SOLID MECHANICS DYNAMICS TUTORIAL PULLEY DRIVE SYSTEMS. This work covers elements of the syllabus for the Edexcel module HNC/D Mechanical Principles. SOLID MECHANICS DYNAMICS TUTORIAL PULLEY DRIVE SYSTEMS This work covers elements of the syllabus for the Edexcel module HNC/D Mechanical Principles. On completion of this tutorial you should be able to

More information

TOP VIEW. FBD s TOP VIEW. Examination No. 2 PROBLEM NO. 1. Given:

TOP VIEW. FBD s TOP VIEW. Examination No. 2 PROBLEM NO. 1. Given: RLEM N. 1 Given: Find: vehicle having a mass of 500 kg is traveling on a banked track on a path with a constant radius of R = 1000 meters. t the instant showing, the vehicle is traveling with a speed of

More information

Lecture L2 - Degrees of Freedom and Constraints, Rectilinear Motion

Lecture L2 - Degrees of Freedom and Constraints, Rectilinear Motion S. Widnall 6.07 Dynamics Fall 009 Version.0 Lecture L - Degrees of Freedom and Constraints, Rectilinear Motion Degrees of Freedom Degrees of freedom refers to the number of independent spatial coordinates

More information

Structural Axial, Shear and Bending Moments

Structural Axial, Shear and Bending Moments Structural Axial, Shear and Bending Moments Positive Internal Forces Acting Recall from mechanics of materials that the internal forces P (generic axial), V (shear) and M (moment) represent resultants

More information

Engineering g Problem Solving Process

Engineering g Problem Solving Process Engineering g Problem Solving Process GIVEN State briefly and concisely (in your own words) the information given. FIND State the information that you have to find. DIAGRAM A drawing showing the physical

More information

Work, Power, Energy Multiple Choice. PSI Physics. Multiple Choice Questions

Work, Power, Energy Multiple Choice. PSI Physics. Multiple Choice Questions Work, Power, Energy Multiple Choice PSI Physics Name Multiple Choice Questions 1. A block of mass m is pulled over a distance d by an applied force F which is directed in parallel to the displacement.

More information

v v ax v a x a v a v = = = Since F = ma, it follows that a = F/m. The mass of the arrow is unchanged, and ( )

v v ax v a x a v a v = = = Since F = ma, it follows that a = F/m. The mass of the arrow is unchanged, and ( ) Week 3 homework IMPORTANT NOTE ABOUT WEBASSIGN: In the WebAssign versions of these problems, various details have been changed, so that the answers will come out differently. The method to find the solution

More information

Chapter 6 Work and Energy

Chapter 6 Work and Energy Chapter 6 WORK AND ENERGY PREVIEW Work is the scalar product of the force acting on an object and the displacement through which it acts. When work is done on or by a system, the energy of that system

More information

AP Physics Applying Forces

AP Physics Applying Forces AP Physics Applying Forces This section of your text will be very tedious, very tedious indeed. (The Physics Kahuna is just as sorry as he can be.) It s mostly just a bunch of complicated problems and

More information

AP Physics C. Oscillations/SHM Review Packet

AP Physics C. Oscillations/SHM Review Packet AP Physics C Oscillations/SHM Review Packet 1. A 0.5 kg mass on a spring has a displacement as a function of time given by the equation x(t) = 0.8Cos(πt). Find the following: a. The time for one complete

More information

Prelab Exercises: Hooke's Law and the Behavior of Springs

Prelab Exercises: Hooke's Law and the Behavior of Springs 59 Prelab Exercises: Hooke's Law and the Behavior of Springs Study the description of the experiment that follows and answer the following questions.. (3 marks) Explain why a mass suspended vertically

More information

Sandia High School Geometry Second Semester FINAL EXAM. Mark the letter to the single, correct (or most accurate) answer to each problem.

Sandia High School Geometry Second Semester FINAL EXAM. Mark the letter to the single, correct (or most accurate) answer to each problem. Sandia High School Geometry Second Semester FINL EXM Name: Mark the letter to the single, correct (or most accurate) answer to each problem.. What is the value of in the triangle on the right?.. 6. D.

More information

CHAPTER 29 VOLUMES AND SURFACE AREAS OF COMMON SOLIDS

CHAPTER 29 VOLUMES AND SURFACE AREAS OF COMMON SOLIDS CHAPTER 9 VOLUMES AND SURFACE AREAS OF COMMON EXERCISE 14 Page 9 SOLIDS 1. Change a volume of 1 00 000 cm to cubic metres. 1m = 10 cm or 1cm = 10 6m 6 Hence, 1 00 000 cm = 1 00 000 10 6m = 1. m. Change

More information

Chapter 18 Static Equilibrium

Chapter 18 Static Equilibrium Chapter 8 Static Equilibrium 8. Introduction Static Equilibrium... 8. Lever Law... Example 8. Lever Law... 4 8.3 Generalized Lever Law... 5 8.4 Worked Examples... 7 Example 8. Suspended Rod... 7 Example

More information

Chapter 5: Distributed Forces; Centroids and Centers of Gravity

Chapter 5: Distributed Forces; Centroids and Centers of Gravity CE297-FA09-Ch5 Page 1 Wednesday, October 07, 2009 12:39 PM Chapter 5: Distributed Forces; Centroids and Centers of Gravity What are distributed forces? Forces that act on a body per unit length, area or

More information

PHYSICS 111 HOMEWORK SOLUTION #10. April 8, 2013

PHYSICS 111 HOMEWORK SOLUTION #10. April 8, 2013 PHYSICS HOMEWORK SOLUTION #0 April 8, 203 0. Find the net torque on the wheel in the figure below about the axle through O, taking a = 6.0 cm and b = 30.0 cm. A torque that s produced by a force can be

More information

ANALYTICAL METHODS FOR ENGINEERS

ANALYTICAL METHODS FOR ENGINEERS UNIT 1: Unit code: QCF Level: 4 Credit value: 15 ANALYTICAL METHODS FOR ENGINEERS A/601/1401 OUTCOME - TRIGONOMETRIC METHODS TUTORIAL 1 SINUSOIDAL FUNCTION Be able to analyse and model engineering situations

More information

104 Practice Exam 2-3/21/02

104 Practice Exam 2-3/21/02 104 Practice Exam 2-3/21/02 1. Two electrons are located in a region of space where the magnetic field is zero. Electron A is at rest; and electron B is moving westward with a constant velocity. A non-zero

More information

AP Physics C Fall Final Web Review

AP Physics C Fall Final Web Review Name: Class: _ Date: _ AP Physics C Fall Final Web Review Multiple Choice Identify the choice that best completes the statement or answers the question. 1. On a position versus time graph, the slope of

More information

PHY121 #8 Midterm I 3.06.2013

PHY121 #8 Midterm I 3.06.2013 PHY11 #8 Midterm I 3.06.013 AP Physics- Newton s Laws AP Exam Multiple Choice Questions #1 #4 1. When the frictionless system shown above is accelerated by an applied force of magnitude F, the tension

More information

EDEXCEL NATIONAL CERTIFICATE/DIPLOMA MECHANICAL PRINCIPLES AND APPLICATIONS NQF LEVEL 3 OUTCOME 1 - LOADING SYSTEMS TUTORIAL 3 LOADED COMPONENTS

EDEXCEL NATIONAL CERTIFICATE/DIPLOMA MECHANICAL PRINCIPLES AND APPLICATIONS NQF LEVEL 3 OUTCOME 1 - LOADING SYSTEMS TUTORIAL 3 LOADED COMPONENTS EDEXCEL NATIONAL CERTIICATE/DIPLOMA MECHANICAL PRINCIPLES AND APPLICATIONS NQ LEVEL 3 OUTCOME 1 - LOADING SYSTEMS TUTORIAL 3 LOADED COMPONENTS 1. Be able to determine the effects of loading in static engineering

More information

3600 s 1 h. 24 h 1 day. 1 day

3600 s 1 h. 24 h 1 day. 1 day Week 7 homework IMPORTANT NOTE ABOUT WEBASSIGN: In the WebAssign versions of these problems, various details have been changed, so that the answers will come out differently. The method to find the solution

More information

ANSWER KEY. Work and Machines

ANSWER KEY. Work and Machines Chapter Project Worksheet 1 1. inclined plane, wedge, screw, lever, wheel and axle, pulley 2. pulley 3. lever 4. inclined plane 5. Answers will vary: top, side, or bottom 6. Answers will vary; only one

More information

Cambridge International Examinations Cambridge International Advanced Subsidiary and Advanced Level

Cambridge International Examinations Cambridge International Advanced Subsidiary and Advanced Level Cambridge International Examinations Cambridge International Advanced Subsidiary and Advanced Level *0123456789* PHYSICS 9702/02 Paper 2 AS Level Structured Questions For Examination from 2016 SPECIMEN

More information

F N A) 330 N 0.31 B) 310 N 0.33 C) 250 N 0.27 D) 290 N 0.30 E) 370 N 0.26

F N A) 330 N 0.31 B) 310 N 0.33 C) 250 N 0.27 D) 290 N 0.30 E) 370 N 0.26 Physics 23 Exam 2 Spring 2010 Dr. Alward Page 1 1. A 250-N force is directed horizontally as shown to push a 29-kg box up an inclined plane at a constant speed. Determine the magnitude of the normal force,

More information

Chapter 4: Newton s Laws: Explaining Motion

Chapter 4: Newton s Laws: Explaining Motion Chapter 4: Newton s Laws: Explaining Motion 1. All except one of the following require the application of a net force. Which one is the exception? A. to change an object from a state of rest to a state

More information

Recitation Week 4 Chapter 5

Recitation Week 4 Chapter 5 Recitation Week 4 Chapter 5 Problem 5.5. A bag of cement whose weight is hangs in equilibrium from three wires shown in igure P5.4. wo of the wires make angles θ = 60.0 and θ = 40.0 with the horizontal.

More information

Section 16: Neutral Axis and Parallel Axis Theorem 16-1

Section 16: Neutral Axis and Parallel Axis Theorem 16-1 Section 16: Neutral Axis and Parallel Axis Theorem 16-1 Geometry of deformation We will consider the deformation of an ideal, isotropic prismatic beam the cross section is symmetric about y-axis All parts

More information

MECHANICS OF SOLIDS - BEAMS TUTORIAL 1 STRESSES IN BEAMS DUE TO BENDING. On completion of this tutorial you should be able to do the following.

MECHANICS OF SOLIDS - BEAMS TUTORIAL 1 STRESSES IN BEAMS DUE TO BENDING. On completion of this tutorial you should be able to do the following. MECHANICS OF SOLIDS - BEAMS TUTOIAL 1 STESSES IN BEAMS DUE TO BENDING This is the first tutorial on bending of beams designed for anyone wishing to study it at a fairly advanced level. You should judge

More information

Pallet Jack. OWNER S MANUAL Model MH1230. Important Safety Instructions Assembly Instructions Parts and Hardware Identification

Pallet Jack. OWNER S MANUAL Model MH1230. Important Safety Instructions Assembly Instructions Parts and Hardware Identification OWNER S MANUAL Model MH1230 Important Safety Instructions Assembly Instructions Parts and Hardware Identification Pallet Jack CAUTION: Read, understand and follow ALL instructions before using this product

More information

PHYSICS 111 HOMEWORK SOLUTION #9. April 5, 2013

PHYSICS 111 HOMEWORK SOLUTION #9. April 5, 2013 PHYSICS 111 HOMEWORK SOLUTION #9 April 5, 2013 0.1 A potter s wheel moves uniformly from rest to an angular speed of 0.16 rev/s in 33 s. Find its angular acceleration in radians per second per second.

More information

PHYS 211 FINAL FALL 2004 Form A

PHYS 211 FINAL FALL 2004 Form A 1. Two boys with masses of 40 kg and 60 kg are holding onto either end of a 10 m long massless pole which is initially at rest and floating in still water. They pull themselves along the pole toward each

More information

Page 1 of 18 28.4.2008 Sven Alexander Last revised 1.3.2010. SB-Produksjon STATICAL CALCULATIONS FOR BCC 250

Page 1 of 18 28.4.2008 Sven Alexander Last revised 1.3.2010. SB-Produksjon STATICAL CALCULATIONS FOR BCC 250 Page 1 of 18 CONTENT PART 1 BASIC ASSUMPTIONS PAGE 1.1 General 1. Standards 1.3 Loads 1. Qualities PART ANCHORAGE OF THE UNITS.1 Beam unit equilibrium 3. Beam unit anchorage in front..1 Check of capacity..

More information

Serway_ISM_V1 1 Chapter 4

Serway_ISM_V1 1 Chapter 4 Serway_ISM_V1 1 Chapter 4 ANSWERS TO MULTIPLE CHOICE QUESTIONS 1. Newton s second law gives the net force acting on the crate as This gives the kinetic friction force as, so choice (a) is correct. 2. As

More information

AP1 Dynamics. Answer: (D) foot applies 200 newton force to nose; nose applies an equal force to the foot. Basic application of Newton s 3rd Law.

AP1 Dynamics. Answer: (D) foot applies 200 newton force to nose; nose applies an equal force to the foot. Basic application of Newton s 3rd Law. 1. A mixed martial artist kicks his opponent in the nose with a force of 200 newtons. Identify the action-reaction force pairs in this interchange. (A) foot applies 200 newton force to nose; nose applies

More information

SOLUTIONS TO CONCEPTS CHAPTER 15

SOLUTIONS TO CONCEPTS CHAPTER 15 SOLUTIONS TO CONCEPTS CHAPTER 15 1. v = 40 cm/sec As velocity of a wave is constant location of maximum after 5 sec = 40 5 = 00 cm along negative x-axis. [(x / a) (t / T)]. Given y = Ae a) [A] = [M 0 L

More information

Method of Joints. Method of Joints. Method of Joints. Method of Joints. Method of Joints. Method of Joints. CIVL 3121 Trusses - Method of Joints 1/5

Method of Joints. Method of Joints. Method of Joints. Method of Joints. Method of Joints. Method of Joints. CIVL 3121 Trusses - Method of Joints 1/5 IVL 3121 Trusses - 1/5 If a truss is in equilibrium, then each of its joints must be in equilibrium. The method of joints consists of satisfying the equilibrium equations for forces acting on each joint.

More information

Curso2012-2013 Física Básica Experimental I Cuestiones Tema IV. Trabajo y energía.

Curso2012-2013 Física Básica Experimental I Cuestiones Tema IV. Trabajo y energía. 1. A body of mass m slides a distance d along a horizontal surface. How much work is done by gravity? A) mgd B) zero C) mgd D) One cannot tell from the given information. E) None of these is correct. 2.

More information

Two-Body System: Two Hanging Masses

Two-Body System: Two Hanging Masses Specific Outcome: i. I can apply Newton s laws of motion to solve, algebraically, linear motion problems in horizontal, vertical and inclined planes near the surface of Earth, ignoring air resistance.

More information

Work, Energy and Power

Work, Energy and Power Work, Energy and Power In this section of the Transport unit, we will look at the energy changes that take place when a force acts upon an object. Energy can t be created or destroyed, it can only be changed

More information

B.TECH. (AEROSPACE ENGINEERING) PROGRAMME (BTAE) Term-End Examination December, 2011 BAS-010 : MACHINE DESIGN

B.TECH. (AEROSPACE ENGINEERING) PROGRAMME (BTAE) Term-End Examination December, 2011 BAS-010 : MACHINE DESIGN No. of Printed Pages : 7 BAS-01.0 B.TECH. (AEROSPACE ENGINEERING) PROGRAMME (BTAE) CV CA CV C:) O Term-End Examination December, 2011 BAS-010 : MACHINE DESIGN Time : 3 hours Maximum Marks : 70 Note : (1)

More information

Boom and fly capacities for this machine are listed by the following sections:

Boom and fly capacities for this machine are listed by the following sections: Lifting Capacities Telescopic Hydraulic Truck Crane HTC 8650 50 ton (45.36 metric ton) and fly capacities for this machine are listed by the following sections: Fully Extended Outriggers Working Range

More information

Physics: Principles and Applications, 6e Giancoli Chapter 4 Dynamics: Newton's Laws of Motion

Physics: Principles and Applications, 6e Giancoli Chapter 4 Dynamics: Newton's Laws of Motion Physics: Principles and Applications, 6e Giancoli Chapter 4 Dynamics: Newton's Laws of Motion Conceptual Questions 1) Which of Newton's laws best explains why motorists should buckle-up? A) the first law

More information

OUTCOME 1 STATIC FLUID SYSTEMS TUTORIAL 1 - HYDROSTATICS

OUTCOME 1 STATIC FLUID SYSTEMS TUTORIAL 1 - HYDROSTATICS Unit 41: Fluid Mechanics Unit code: T/601/1445 QCF Level: 4 Credit value: 15 OUTCOME 1 STATIC FLUID SYSTEMS TUTORIAL 1 - HYDROSTATICS 1. Be able to determine the behavioural characteristics and parameters

More information

EQUILIBRIUM STRESS SYSTEMS

EQUILIBRIUM STRESS SYSTEMS EQUILIBRIUM STRESS SYSTEMS Definition of stress The general definition of stress is: Stress = Force Area where the area is the cross-sectional area on which the force is acting. Consider the rectangular

More information

Uniform Circular Motion III. Homework: Assignment (1-35) Read 5.4, Do CONCEPT QUEST #(8), Do PROBS (20, 21) Ch. 5 + AP 1997 #2 (handout)

Uniform Circular Motion III. Homework: Assignment (1-35) Read 5.4, Do CONCEPT QUEST #(8), Do PROBS (20, 21) Ch. 5 + AP 1997 #2 (handout) Double Date: Objective: Uniform Circular Motion II Uniform Circular Motion III Homework: Assignment (1-35) Read 5.4, Do CONCEPT QUEST #(8), Do PROBS (20, 21) Ch. 5 + AP 1997 #2 (handout) AP Physics B

More information

Pre-lab Quiz/PHYS 224 Magnetic Force and Current Balance. Your name Lab section

Pre-lab Quiz/PHYS 224 Magnetic Force and Current Balance. Your name Lab section Pre-lab Quiz/PHYS 224 Magnetic Force and Current Balance Your name Lab section 1. What do you investigate in this lab? 2. Two straight wires are in parallel and carry electric currents in opposite directions

More information

Lecture 6. Weight. Tension. Normal Force. Static Friction. Cutnell+Johnson: 4.8-4.12, second half of section 4.7

Lecture 6. Weight. Tension. Normal Force. Static Friction. Cutnell+Johnson: 4.8-4.12, second half of section 4.7 Lecture 6 Weight Tension Normal Force Static Friction Cutnell+Johnson: 4.8-4.12, second half of section 4.7 In this lecture, I m going to discuss four different kinds of forces: weight, tension, the normal

More information

D.3. Angles and Degree Measure. Review of Trigonometric Functions

D.3. Angles and Degree Measure. Review of Trigonometric Functions APPENDIX D Precalculus Review D7 SECTION D. Review of Trigonometric Functions Angles and Degree Measure Radian Measure The Trigonometric Functions Evaluating Trigonometric Functions Solving Trigonometric

More information

Chapter 7 Homework solutions

Chapter 7 Homework solutions Chapter 7 Homework solutions 8 Strategy Use the component form of the definition of center of mass Solution Find the location of the center of mass Find x and y ma xa + mbxb (50 g)(0) + (10 g)(5 cm) x

More information

SOLID MECHANICS TUTORIAL MECHANISMS KINEMATICS - VELOCITY AND ACCELERATION DIAGRAMS

SOLID MECHANICS TUTORIAL MECHANISMS KINEMATICS - VELOCITY AND ACCELERATION DIAGRAMS SOLID MECHANICS TUTORIAL MECHANISMS KINEMATICS - VELOCITY AND ACCELERATION DIAGRAMS This work covers elements of the syllabus for the Engineering Council exams C105 Mechanical and Structural Engineering

More information

CONVEYING TECHNOLOGY LOADING TECHNOLOGY PALLETIZING TECHNOLOGY PACKAGING TECHNOLOGY SORTATION AND DISTRIBUTION SYSTEMS

CONVEYING TECHNOLOGY LOADING TECHNOLOGY PALLETIZING TECHNOLOGY PACKAGING TECHNOLOGY SORTATION AND DISTRIBUTION SYSTEMS CONVEYING TECHNOLOGY LOADING TECHNOLOGY PALLETIZING TECHNOLOGY PACKAGING TECHNOLOGY SORTATION AND DISTRIBUTION SYSTEMS High capacity chain bucket elevators BEUMER CONVEYING TECHNOLOGY Bucket elevators

More information

Mechanics 1: Conservation of Energy and Momentum

Mechanics 1: Conservation of Energy and Momentum Mechanics : Conservation of Energy and Momentum If a certain quantity associated with a system does not change in time. We say that it is conserved, and the system possesses a conservation law. Conservation

More information

Belt Drives and Chain Drives. Power Train. Power Train

Belt Drives and Chain Drives. Power Train. Power Train Belt Drives and Chain Drives Material comes for Mott, 2002 and Kurtz, 1999 Power Train A power train transmits power from an engine or motor to the load. Some of the most common power trains include: Flexible

More information

The Grange School Maths Department. Mechanics 1 OCR Past Papers

The Grange School Maths Department. Mechanics 1 OCR Past Papers The Grange School Maths Department Mechanics 1 OCR Past Papers June 2005 2 1 A light inextensible string has its ends attached to two fixed points A and B. The point A is vertically above B. A smooth ring

More information

Problem 1: Computation of Reactions. Problem 2: Computation of Reactions. Problem 3: Computation of Reactions

Problem 1: Computation of Reactions. Problem 2: Computation of Reactions. Problem 3: Computation of Reactions Problem 1: Computation of Reactions Problem 2: Computation of Reactions Problem 3: Computation of Reactions Problem 4: Computation of forces and moments Problem 5: Bending Moment and Shear force Problem

More information

Steps to Solving Newtons Laws Problems.

Steps to Solving Newtons Laws Problems. Mathematical Analysis With Newtons Laws similar to projectiles (x y) isolation Steps to Solving Newtons Laws Problems. 1) FBD 2) Axis 3) Components 4) Fnet (x) (y) 5) Subs 1 Visual Samples F 4 1) F 3 F

More information

ENGINEERING COUNCIL CERTIFICATE LEVEL

ENGINEERING COUNCIL CERTIFICATE LEVEL ENGINEERING COUNCIL CERTIICATE LEVEL ENGINEERING SCIENCE C103 TUTORIAL - BASIC STUDIES O STRESS AND STRAIN You should judge your progress by completing the self assessment exercises. These may be sent

More information

SURFACE TENSION. Definition

SURFACE TENSION. Definition SURFACE TENSION Definition In the fall a fisherman s boat is often surrounded by fallen leaves that are lying on the water. The boat floats, because it is partially immersed in the water and the resulting

More information