Halliday/Resnick/Walker Fundamentals of Physics 8th edition

Slides:



Advertisements
Similar presentations
Phy 212: General Physics II Chapter 14: Fluids Lecture Notes.
Advertisements

Liquids and Gasses Matter that “Flows”
Chapter 14 Fluid Mechanics.
Fluids Mechanics Carlos Silva December 2 nd 2009.
Chapter 9 Solids and Fluids 1. Introduction 2. Fluids at Rest 3. Fluid Motion.
Fluids Gases (compressible) and liquids (incompressible) – density of gases can change dramatically, while that of liquids much less so Gels, colloids,
Fluids - Statics Level 1 Physics. Essential Questions and Objectives Essential Questions What are the physical properties of fluid states of matter? What.
CHAPTER-14 Fluids. Ch 14-2, 3 Fluid Density and Pressure  Fluid: a substance that can flow  Density  of a fluid having a mass m and a volume V is given.
Fluids Physics 202 Professor Vogel (Professor Carkner’s notes, ed) Lecture 19.
Chapter 14 Fluids Key contents Description of fluids
Phy 202: General Physics II Ch 11: Fluids. Daniel Bernoulli ( ) Swiss merchant, doctor & mathematician Worked on: –Vibrating strings –Ocean tides.
Chapter 9 Solids and Fluids. Solids Has definite volume Has definite volume Has definite shape Has definite shape Molecules are held in specific locations.
Fluid mechanics 3.1 – key points
Unit 3 - FLUID MECHANICS.
Chapter 14 PHYSICS 2048C Fluids. What Is a Fluid?  A fluid, in contrast to a solid, is a substance that can flow.  Fluids conform to the boundaries.
Chapter 9 Fluid Mechanics.
Advanced Physics Chapter 10 Fluids. Chapter 10 Fluids 10.1 Phases of Matter 10.2 Density and Specific Gravity 10.3 Pressure in Fluids 10.4 Atmospheric.
Hydrostatics: Fluids at Rest. applying Newtonian principles to fluids hydrostatics—the study of stationary fluids in which all forces are in equilibrium.
Fluid Mechanics Chapter 13 2 Fluid Anything that can flow A liquid or a gas Physics Chapter 13.
Chapter 8: Fluid Mechanics
Warm-up Pick up the free response at the door and begin working on it.
Fluid Mechanics Chapter 8.
Fluids AP Physics Chapter 10.
© 2007 Pearson Prentice Hall This work is protected by United States copyright laws and is provided solely for the use of instructors in teaching their.
Chapter 15 Fluid Mechanics.
Chapter 10 Fluids. Units of Chapter 10 Phases of Matter Density Pressure in Fluids Atmospheric Pressure and Gauge Pressure Pascal’s Principle Measurement.
Warm-up For light of a given frequency, ice has an index of refraction of 1.31 and water has an index of refraction of Find the critical angle θ.
Chapter 9 Fluid Mechanics. Chapter Objectives Define fluid Density Buoyant force Buoyantly of floating objects Pressure Pascal's principle Pressure and.
Chapter 11 Fluids.
Chapter Fluid pressure and temperature. Pressure  What happens to your ears when you ride in an airplane?  What happens if a submarine goes.
Chapter 9 Forces and Buoyancy. Force An influence that causes an object to undergo a change in motion Generally a push or a pull.
Chapter 15 Fluid Mechanics States of Matter Solid Has a definite volume and shape Liquid Has a definite volume but not a definite shape Gas –
1 Fluid Mechanics Chapter 13 2 Fluid Anything that can flow A liquid or a gas.
Chapter 14 Fluids What is a Fluid? A fluid, in contrast to a solid, is a substance that can flow. Fluids conform to the boundaries of any container.
Introduction To Fluids. Density  = m/V  = m/V   : density (kg/m 3 )  m: mass (kg)  V: volume (m 3 )
Unit 6 : Part 1 Fluids.
States of MatterSection 3 Pressure 〉 Fluids exert pressure evenly in all directions. –pressure: the amount of force exerted per unit area of a surface.
Fluids. Introduction The 3 most common states of matter are: –Solid: fixed shape and size (fixed volume) –Liquid: takes the shape of the container and.
Lecture Outline Chapter 9 College Physics, 7 th Edition Wilson / Buffa / Lou © 2010 Pearson Education, Inc.
Chapter 14 Fluids.
Subdivisions of matter solidsliquidsgases rigidwill flowwill flow dense dense low density and incompressible and incompressible compressible fluids condensed.
Advanced Physics Chapter 10 Fluids.
FLUIDS A fluid is any substance that flows and conforms to the boundaries of its container. A fluid could be a gas or a liquid. An ideal fluid is assumed.
Fluid Mechanics Chapter 8. Fluids Ability to flow Ability to change shape Both liquids and gases Only liquids have definite volume.
Fluid Mechanics Chapter 9 Review. Agenda:  9.1: Fluids and Buoyant Force  9.2: Fluid Pressure and Temperature  9.3: Fluids in Motion  9.4: Properties.
Chapter 11 – Forces in Fluids. Pressure The amount of pressure you exert depends on the area over which you exert force. Pressure is equal to the force.
Physics Chapter 9: Fluid Mechanics. Fluids  Fluids  Definition - Materials that Flow  Liquids  Definite Volume  Non-Compressible  Gasses  No Definite.
Chapter 9 Forces influence the motion and properties of fluids.
Physics 2: Fluid Mechanics and Thermodynamics Đào Ngọc Hạnh Tâm Office: A1.503, HCMIU, Vietnam National University Reference:
Fluids and Elasticity Readings: Chapter 15.
Chapter 11 Fluids.
College Physics, 7th Edition
Chapter 11 Fluids.
Fluid Mechanics Presentation on FLUID STATICS BY Group:
Chapter 11 Fluids.
Chapter 14 Fluids.
Physics 21.
Fluids Liquids and Gases Chapter 11.
Copyright © 2014 John Wiley & Sons, Inc. All rights reserved.
Fluids Chapter 11.
Chapter 7: Solid and Fluids
Physical Science Forces in Fluids.
Lecture Outline Chapter 15 Physics, 4th Edition James S. Walker
Physics 151: Lecture 29 Today’s Agenda
Chapter 14 Fluid Mechanics.
Chapter 14 PHYSICS 2048C Fluids.
Kepler’s Laws of Planetary Motion
Cutnell/Johnson Physics 7th edition Reading Quiz Questions
Chapter 14 PHYSICS 2048C Fluids.
Chapter 11 Fluids.
Presentation transcript:

Halliday/Resnick/Walker Fundamentals of Physics 8th edition Classroom Response System Questions Chapter 14 Fluids Reading Quiz Questions

14.2.1. Which one of the following statements best describes fluids? a) Fluids are liquids. b) Fluids are gases. c) Fluids are transparent. d) Fluids are gases or liquids. e) Fluids are opaque.

14.2.1. Which one of the following statements best describes fluids? a) Fluids are liquids. b) Fluids are gases. c) Fluids are transparent. d) Fluids are gases or liquids. e) Fluids are opaque.

14.2.2. Which one of the following substances is not a fluid? a) mercury b) air c) water d) liquid nitrogen e) all of the above are fluids

14.2.2. Which one of the following substances is not a fluid? a) mercury b) air c) water d) liquid nitrogen e) all of the above are fluids

14. 3. 1. The density of mercury is 1. 36 × 104 kg/m3 14.3.1. The density of mercury is 1.36 × 104 kg/m3. What is the mass of a 4.00 × 10–4-m3 sample of mercury? a) 6.29 kg b) 5.44 kg c) 2.94 kg d) 0.0343 kg e) 0.002 94 kg

14. 3. 1. The density of mercury is 1. 36 × 104 kg/m3 14.3.1. The density of mercury is 1.36 × 104 kg/m3. What is the mass of a 4.00 × 10–4-m3 sample of mercury? a) 6.29 kg b) 5.44 kg c) 2.94 kg d) 0.0343 kg e) 0.002 94 kg

14. 3. 2. A cube of a certain metal has 0 14.3.2. A cube of a certain metal has 0.040-m sides and its mass is 0.48 kg. What is the mass density of the cube? a) 12 kg/m3 b) 300 kg/m3 c) 1800 kg/m3 d) 7500 kg/m3 e) 8700 kg/m3

14. 3. 2. A cube of a certain metal has 0 14.3.2. A cube of a certain metal has 0.040-m sides and its mass is 0.48 kg. What is the mass density of the cube? a) 12 kg/m3 b) 300 kg/m3 c) 1800 kg/m3 d) 7500 kg/m3 e) 8700 kg/m3

14.3.3. Which of the following choices is equivalent to the SI unit of pressure, the pascal? a) N/m b) N/ms2 c) kg/ms2 d) N/s e) kgm/s2

14.3.3. Which of the following choices is equivalent to the SI unit of pressure, the pascal? a) N/m b) N/ms2 c) kg/ms2 d) N/s e) kgm/s2

14.3.4. Complete the following statement: Pressure is a measure of a) the force exerted by a fluid. b) the force per unit area that a fluid exerts. c) the force per unit time that a fluid exerts. d) the impulse of a fluid. e) the energy in a fluid.

14.3.4. Complete the following statement: Pressure is a measure of a) the force exerted by a fluid. b) the force per unit area that a fluid exerts. c) the force per unit time that a fluid exerts. d) the impulse of a fluid. e) the energy in a fluid.

14.3.5. Which one of the following is equal to the pressure of the earth’s atmospheric pressure at sea level? a) 1.60 × 104 Pa b) 1.01 × 105 Pa c) 1.09 × 106 Pa d) 1.31 × 107 Pa e) 2.70 × 107 Pa

14.3.5. Which one of the following is equal to the pressure of the earth’s atmospheric pressure at sea level? a) 1.60 × 104 Pa b) 1.01 × 105 Pa c) 1.09 × 106 Pa d) 1.31 × 107 Pa e) 2.70 × 107 Pa

14.3.6. In which one of the following cases is the pressure exerted on the ground by the man the largest? a) A man stands with both feet flat on the ground. b) A man stands with one foot flat on the ground. c) A man lies with his back flat on the ground. d) A man kneels with both knees on the ground. e) A man stands with the toes of one foot on the ground.

14.3.6. In which one of the following cases is the pressure exerted on the ground by the man the largest? a) A man stands with both feet flat on the ground. b) A man stands with one foot flat on the ground. c) A man lies with his back flat on the ground. d) A man kneels with both knees on the ground. e) A man stands with the toes of one foot on the ground.

14.3.7. Which one of the following expressions gives the correct relationship between pressure and force? a) P = F/A b) P = FA c) P = F d) P = A/F e) There is no relationship between pressure and force.

14.3.7. Which one of the following expressions gives the correct relationship between pressure and force? a) P = F/A b) P = FA c) P = F d) P = A/F e) There is no relationship between pressure and force.

14.4.1. The pressure at a point in a fluid in static equilibrium depends on which of the following? a) the total depth of the fluid b) the depth of the given point c) the total volume of fluid d) both choices a) and b) e) both choices a) and c)

14.4.1. The pressure at a point in a fluid in static equilibrium depends on which of the following? a) the total depth of the fluid b) the depth of the given point c) the total volume of fluid d) both choices a) and b) e) both choices a) and c)

14.4.2. Which one of the following statements best describes the pressure in a static, homogeneous liquid? a) The pressure is the same at all points in the fluid. b) The pressure is not dependent on the atmospheric pressure exerted at the surface of the liquid. c) At a given depth in the liquid, the pressure is the same at all points at that depth. d) The pressure depends on the type of liquid. The denser the liquid is, the smaller the pressure will be. e) The pressure decreases as the depth increases.

14.4.2. Which one of the following statements best describes the pressure in a static, homogeneous liquid? a) The pressure is the same at all points in the fluid. b) The pressure is not dependent on the atmospheric pressure exerted at the surface of the liquid. c) At a given depth in the liquid, the pressure is the same at all points at that depth. d) The pressure depends on the type of liquid. The denser the liquid is, the smaller the pressure will be. e) The pressure decreases as the depth increases.

14.4.3. Which one of the following statements best explains why the pressure in a static fluid increases as the depth increases? a) The density of the fluid increases with depth. b) As the depth increases, the weight of the water above a particular level increases. c) As the depth increases, the density of the fluid decreases. d) As depth increases, the gravitational force of the earth on the water increases. e) The temperature of the water decreases with depth.

14.4.3. Which one of the following statements best explains why the pressure in a static fluid increases as the depth increases? a) The density of the fluid increases with depth. b) As the depth increases, the weight of the water above a particular level increases. c) As the depth increases, the density of the fluid decreases. d) As depth increases, the gravitational force of the earth on the water increases. e) The temperature of the water decreases with depth.

14.4.4. Consider the drawing of the liquid within the U-shaped tube that has both sides open at the top. Is this fluid in equilibrium? a) Yes, the fluid must be in equilibrium. b) No, side A should be lower than side B. c) No, side B should be lower than side A d) No, both sides should be at the same height. e) The answer may be yes or no, depending on the density of the fluid.

14.4.4. Consider the drawing of the liquid within the U-shaped tube that has both sides open at the top. Is this fluid in equilibrium? a) Yes, the fluid must be in equilibrium. b) No, side A should be lower than side B. c) No, side B should be lower than side A d) No, both sides should be at the same height. e) The answer may be yes or no, depending on the density of the fluid.

14.4.5. Consider the drawing of the liquid within the U-shaped tube that has one side sealed. Is this fluid in equilibrium? a) Yes, the fluid can be in equilibrium. b) No, side A should be lower than side B. c) No, side B should be lower than side A d) No, both sides should be at the same height. e) The answer may be yes or no, depending on the density of the fluid.

14.4.5. Consider the drawing of the liquid within the U-shaped tube that has one side sealed. Is this fluid in equilibrium? a) Yes, the fluid can be in equilibrium. b) No, side A should be lower than side B. c) No, side B should be lower than side A d) No, both sides should be at the same height. e) The answer may be yes or no, depending on the density of the fluid.

14.5.1. Which of the following devices is used to measure atmospheric pressure? a) manometer b) barometer c) goniometer d) pascalometer e) dynamometer

14.5.1. Which of the following devices is used to measure atmospheric pressure? a) manometer b) barometer c) goniometer d) pascalometer e) dynamometer

14.5.2. Which of the following devices is used to measure gauge pressure? a) manometer b) barometer c) goniometer d) pascalometer e) dynamometer

14.5.2. Which of the following devices is used to measure gauge pressure? a) manometer b) barometer c) goniometer d) pascalometer e) dynamometer

14.6.1. Complete the following sentence: The operation of a hydraulic jack is an application of a) Archimedes’ principle. b) Bernoulli's principle. c) Pascal's principle. d) the continuity equation. e) irrotational flow.

14.6.1. Complete the following sentence: The operation of a hydraulic jack is an application of a) Archimedes’ principle. b) Bernoulli's principle. c) Pascal's principle. d) the continuity equation. e) irrotational flow.

14.6.2. A U-shaped tube is connected to a flexible tube that has a membrane-covered funnel on the opposite end as shown in the drawing. Jason finds that no matter which way he orients to membrane, the height of the liquid in the U-shaped tube does not change. Which one of the following choices best describes this behavior? a) Archimedes’ principle b) Bernoulli's principle c) irrotational flow d) the continuity equation e) Pascal's principle

14.6.2. A U-shaped tube is connected to a flexible tube that has a membrane-covered funnel on the opposite end as shown in the drawing. Jason finds that no matter which way he orients to membrane, the height of the liquid in the U-shaped tube does not change. Which one of the following choices best describes this behavior? a) Archimedes’ principle b) Bernoulli's principle c) irrotational flow d) the continuity equation e) Pascal's principle

14.6.3. Which one of the following statements concerning a completely enclosed fluid is true? a) Any change in applied pressure produces an equal change in pressure at all points within the fluid. b) An increase in pressure in one part of the fluid results in an equal decrease in pressure in another part. c) The pressure at all points within the fluid is independent of any pressure applied to it. d) Any change in the applied pressure of the fluid produces a change in pressure that depends on direction. e) The pressure in the fluid is the same at all points within the fluid.

14.6.3. Which one of the following statements concerning a completely enclosed fluid is true? a) Any change in applied pressure produces an equal change in pressure at all points within the fluid. b) An increase in pressure in one part of the fluid results in an equal decrease in pressure in another part. c) The pressure at all points within the fluid is independent of any pressure applied to it. d) Any change in the applied pressure of the fluid produces a change in pressure that depends on direction. e) The pressure in the fluid is the same at all points within the fluid.

14.6.4. While using a hydraulic lever, a force F is applied over a distance d. Which of the following is a likely result of this applied force? a) a larger force is attained over the same distance d b) a larger force is attained over a distance greater than d c) a larger force is attained over a distance smaller than d d) a same force F is attained over a distance smaller than d e) a smaller force than F is attained over a distance smaller than d

14.6.4. While using a hydraulic lever, a force F is applied over a distance d. Which of the following is a likely result of this applied force? a) a larger force is attained over the same distance d b) a larger force is attained over a distance greater than d c) a larger force is attained over a distance smaller than d d) a same force F is attained over a distance smaller than d e) a smaller force than F is attained over a distance smaller than d

14.7.1. Which one of the following statements concerning the buoyant force on an object submerged in a liquid is true? a) The buoyant force will increase with depth if the liquid is incompressible. b) The buoyant force depends on the volume of the liquid displaced. c) The buoyant force depends on the weight of the object. d) The buoyant force depends on the mass of the object. e) The buoyant force is independent of the density of the liquid.

14.7.1. Which one of the following statements concerning the buoyant force on an object submerged in a liquid is true? a) The buoyant force will increase with depth if the liquid is incompressible. b) The buoyant force depends on the volume of the liquid displaced. c) The buoyant force depends on the weight of the object. d) The buoyant force depends on the mass of the object. e) The buoyant force is independent of the density of the liquid.

14.7.2. Under what circumstances will an object that is solid throughout float on water? a) A totally solid object can never float on water because it needs to have air in it. b) If the shape of the object is like that of a boat, it will float. c) A totally solid object can float on water if its volume is greater than the volume of water it displaces. d) A totally solid object can float on water if its density is less than the density of water. e) A totally solid object can float on water if its density is greater than the density of water.

14.7.2. Under what circumstances will an object that is solid throughout float on water? a) A totally solid object can never float on water because it needs to have air in it. b) If the shape of the object is like that of a boat, it will float. c) A totally solid object can float on water if its volume is greater than the volume of water it displaces. d) A totally solid object can float on water if its density is less than the density of water. e) A totally solid object can float on water if its density is greater than the density of water.

14.7.3. Complete the following statement: When an object is placed in a fluid, a buoyant force is exerted on it that is directed upward with a magnitude a) that is greater than the force of gravity on the object. b) that is greater than the weight of the fluid displaced by the object. c) that is equal to the weight of the fluid displaced by the object. d) that is less than the weight of the fluid displaced by the object. e) that is equal to the force of gravity on the object.

14.7.3. Complete the following statement: When an object is placed in a fluid, a buoyant force is exerted on it that is directed upward with a magnitude a) that is greater than the force of gravity on the object. b) that is greater than the weight of the fluid displaced by the object. c) that is equal to the weight of the fluid displaced by the object. d) that is less than the weight of the fluid displaced by the object. e) that is equal to the force of gravity on the object.

14.8.1. Which one of the following statements does not describe a property of fluids in motion? a) The fluid flow can be steady or unsteady. b) The fluid flow can be compressible or incompressible. c) The fluid flow can be steadfast or unreliable. d) The fluid flow can be viscous or nonviscous. e) The fluid flow can be turbulent or streamline.

14.8.1. Which one of the following statements does not describe a property of fluids in motion? a) The fluid flow can be steady or unsteady. b) The fluid flow can be compressible or incompressible. c) The fluid flow can be steadfast or unreliable. d) The fluid flow can be viscous or nonviscous. e) The fluid flow can be turbulent or streamline.

14.8.2. Which one of the following statements best describes laminar flow in fluids. a) At a given point in the moving fluid, the fluid velocity is constant. b) At all points in the moving fluid, the fluid velocity is constant. c) Fluid particles only move along streamlines within the fluid. Particles not on a streamline do not move. d) All particles within the fluid follow straight lines called streamlines and their velocity is constant. e) At a given point on a streamline, the fluid velocity is varying, but the average velocity along the streamline is constant.

14.8.2. Which one of the following statements best describes laminar flow in fluids. a) At a given point in the moving fluid, the fluid velocity is constant. b) At all points in the moving fluid, the fluid velocity is constant. c) Fluid particles only move along streamlines within the fluid. Particles not on a streamline do not move. d) All particles within the fluid follow straight lines called streamlines and their velocity is constant. e) At a given point on a streamline, the fluid velocity is varying, but the average velocity along the streamline is constant.

14.8.3. Which one of the following statements concerning steady flow is true? a) Steady flow is described by Pascal's principle. b) Steady flow is described by Archimedes’ principle. c) The velocity vectors are the same for all particles in the fluid. d) At any given point in the fluid, the velocity is constant in time. e) Steady flow occurs when there are sharp obstacles in the path of a fast-moving fluid.

14.8.3. Which one of the following statements concerning steady flow is true? a) Steady flow is described by Pascal's principle. b) Steady flow is described by Archimedes’ principle. c) The velocity vectors are the same for all particles in the fluid. d) At any given point in the fluid, the velocity is constant in time. e) Steady flow occurs when there are sharp obstacles in the path of a fast-moving fluid.

14.8.4. Which one of the following statements concerning an ideal fluid is false? a) When an ideal fluid flows, the flow is non-laminar. b) When an ideal fluid flows, the fluid does not experience viscous drag. c) An ideal fluid is incompressible. d) When an ideal fluid flows at a steady rate, the velocity at a given point does not change with time. e) An ideal fluid undergoes irrotational flow.

14.8.4. Which one of the following statements concerning an ideal fluid is false? a) When an ideal fluid flows, the flow is non-laminar. b) When an ideal fluid flows, the fluid does not experience viscous drag. c) An ideal fluid is incompressible. d) When an ideal fluid flows at a steady rate, the velocity at a given point does not change with time. e) An ideal fluid undergoes irrotational flow.

14.9.1. Which law, principle, or equation specifies that the mass flow rate of a fluid at two positions along a tube must be constant? a) Archimedes' principle b) Pascal's principle c) Poiseuille's law d) equation of continuity e) Bernoulli's equation

14.9.1. Which law, principle, or equation specifies that the mass flow rate of a fluid at two positions along a tube must be constant? a) Archimedes' principle b) Pascal's principle c) Poiseuille's law d) equation of continuity e) Bernoulli's equation

14.9.2. Oil is flowing through a tube that has two different cross-sectional areas as shown in the drawing. At position A where the radius of the tube is 7.0 cm, the mass flow rate of the oil is 0.025 kg/s. What is the mass flow rate at position B where the radius of the tube is 3.5 cm? a) 0.013 kg/s b) 0.025 kg/s c) 0.038 kg/s d) 0.050 kg/s e) 0.10 kg/s

14.9.2. Oil is flowing through a tube that has two different cross-sectional areas as shown in the drawing. At position A where the radius of the tube is 7.0 cm, the mass flow rate of the oil is 0.025 kg/s. What is the mass flow rate at position B where the radius of the tube is 3.5 cm? a) 0.013 kg/s b) 0.025 kg/s c) 0.038 kg/s d) 0.050 kg/s e) 0.10 kg/s

14.10.1. Complete the following statement: Bernoulli's principle is a statement of a) momentum conservation in dynamic fluids. b) energy conservation in dynamic fluids. c) mechanical equilibrium in fluids. d) thermal equilibrium in fluids. e) hydrostatic equilibrium.

14.10.1. Complete the following statement: Bernoulli's principle is a statement of a) momentum conservation in dynamic fluids. b) energy conservation in dynamic fluids. c) mechanical equilibrium in fluids. d) thermal equilibrium in fluids. e) hydrostatic equilibrium.

14.10.2. Which one of the following statements is false concerning the derivation or usage of Bernoulli’s equation? a) Streamline flow is assumed. b) The fluid must be incompressible. c) The fluid must be non-viscous. d) The work-energy theorem is used to derive Bernoulli’s equation. e) Vertical distances are always measured relative to the lowest point within the fluid.

14.10.2. Which one of the following statements is false concerning the derivation or usage of Bernoulli’s equation? a) Streamline flow is assumed. b) The fluid must be incompressible. c) The fluid must be non-viscous. d) The work-energy theorem is used to derive Bernoulli’s equation. e) Vertical distances are always measured relative to the lowest point within the fluid.