MECHANICAL PROPERTIES OF AB MATERIALS

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FINAL EXAMINATION 3984972290

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Grace Balahay

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MECHANICAL PROPERTIES OF AB MATERIALS


MECHANICAL PROPERTIES OF AB MATERIALSOnline version FINAL EXAMINATION 3984972290 by Grace Balahay 1 are those characteristics having to do with the change in shape and size of a material when forces are applied a Mechanical properties b Rheological properties c electrical properties d optical properties 2 is the applied force per unit area and may be expressed as Newtons per square meter (Pascals), pounds force per square inch, kilograms force per square meter, etc. The force may produce tension, shear, or compression within the sample. a stress b tensile stress c compressive stress d shear stress 3 involves both tension and compression. a bending b torque c stress d compressive stress 4 involves only shear forces. a torque b bending c stress d shear stress 5 is a stress resulting from forces directed away from the sample. Stretching a rubber band produces tensile stress in the band. a Tensile stress b compressive stress c shear stress d stress 6 is a stress resulting from forces directed at the sample and acting to push on, or compress, it. a Compressive stress b tensile stress c shear stress d bending 7 is the stress that is tangential to the plane on which the forces act tending to change the sample's shape. It is produced like a tensile (or compressive) but the two pulling (or pushing) forces are offset from each other. a Shear stress b compressive stress c tensile stress d stress 8 is that shear stress exerted on the sample resulting from a twisting a Torsional stress b tensile stress c compressive stress d shear stress 9 is the change, due to the applied force, in the size or shape of a body referred to its original size or shape. Is a dimensionless quantity, but it is frequently expressed in meters per meter, inches per inch, or percent. a strain b stress c hardness d impact resistance 10 refers to the ability of the material to withstand localized permanent deformation achieved typically from indention. It may also be used to describe deformation due to other actions such as cutting, abrasion, penetration, and scratching. a Hardness b compressive stregth c Bending strength d Tensile strength 11 The type of deformation under consideration when measuring hardness is __________ in which the material will not return anymore to its original shape after being deformed. a plastic deformation b elastic deformation c paper deformation 12 is the capacity of a material to withstand loads tending to reduce size or being pushed together. Some materials fracture at their compressive strength limit; others deform irreversibly, so a given amount of deformation may be considered as the limit for compressive load. is a key value for design of structures. a Compressive strength b hardness c Tensile strength d Bending strength 13 is the maximum stress a material is capable of sustaining without failure. a tensile strength b Compressive strength c tensional strength d Impact resistance 14 is calculated utilizing the maximum load during a tension test and is based on the sample's original cross-sectional area a tensional strength b Tensile strength c Compressive strength d Impact resistance 15 is a measure of the ability of a material to withstand a sudden load without failure. a Impact resistance b bending strength c Tensile strength d Compressive strength 16 is often erroneously referred to as impact strength, when in fact it is not about strength at all. a Impact resistance b Compressive strength c Tensile strength d bending strength 17 is sensitive to any particles, voids, or other inhomogeneities that act as flaws. Stresses concentrate around filter particles. a impact resistance b bending strength c Tensile strength d Compressive strength 18 or flexural strength of a material is defined as its ability to resist deformation under load. a bending strength b Impact resistance c Compressive strength d Tensile strength 19 During a bending test described in ASTM D790 the maximum achieved flexural stress value is noted as a Flexural strength b coefficient of sliding friction c Elasticity d Plasticity 20 is a number that indicates how much sliding friction there is between two objects for a given normal force pushing them together. a coefficient of sliding friction b Elasticity c Aerodynamic properties d bending strength 21 factors that can affect the coefficient of friction a surface condition b temperature c wind d atmospheric condition 22 is the ability of the material to resume its normal shape after being stretched or compressed. a elasticity b plasticity c plastic deformation d modulus of elasticity 23 is calculated as the ratio of the stress to the corresponding strain in the linear portion of the stress vs. strain or force vs. deformation curve. a modulus of elasticity b plastic deformation c Aerodynamic properties d Elasticity 24 also known as plastic deformation, is the ability of a solid material to undergo permanent deformation, a non-reversible change of shape in response to applied forces. This property is visible when rice grains are processed into flat rice or oat grains are processed into oat meals a plasticity b Elasticity c Aerodynamic properties d aerodynamic drag 25 In engineering, the transition from elastic behavior to plastic behavior is known a yielding b Plasticity c Modulus of elasticity d terminal velocity 26 relate how the material in motion in air or other gaseous fluids behaves when exposed to the motion of gaseous fluid and the forces acting on it. a Aerodynamic properties b hydrodynamic properties c Kinematic viscosity d Viscosity 27 a dimensionless quantity, is used to quantify the drag or resistance of an object in a fluid environment, such as air or water. a drag coefficient b terminal velocity c aerodynamic drag d Kinematic viscosity 28 associated with a particular surface area a drag coefficient b terminal velocity c aerodynamic drag d terminal velocity 29 is the maximum velocity attainable by an object as it falls through a fluid (air is the most common example). It occurs when the sum of the drag force (Fd) and the buoyancy is equal to the downward force of gravity (FG) acting on the object. Since the net force on the object is zero, the object has zero acceleration. a terminal velocity b drag coefficient c aerodynamic drag d Kinematic viscosity 30 relate how the material in motion immersed in the fluid behaves when exposed to the motion of fluid and the forces acting on it. a hydrodynamic properties b Aerodynamic properties c Kinematic viscosity d Viscosity 31 is a measure of a fluid's resistance to flow. It is a quantity expressing the magnitude of internal friction, as measured by the force per unit area resisting a flow in which parallel layers unit distance apart have unit speed relative to one another. a viscosity b Kinematic viscosity c Reynolds number d terminal velocity 32 is a measure of a fluid's internal resistance to flow under gravitational forces. It is determined by measuring the time in seconds, required for a fixed volume of fluid to flow a known distance by gravity through a capillary within a calibrated viscometer at a closely controlled temperature. a kinematic viscosity b terminal velocity c Viscosity d Reynolds number 33 is the ratio of inertial forces to viscous forces. It is a dimensionless number used to categorize the fluids systems in which the effect of viscosity is important in controlling the velocities or the flow pattern of a fluid. a Reynolds number b Kinematic viscosity c Viscosity d terminal velocity 34 that angle which the a material starts to move down on an inclined flat surface due to the pull of gravity a angle of repose b sliding friction coefficient c aerodynamic properties d elasticity 35 The values of stress and strain determined from the tensile test can be plotted as a a stress-strain curve b stress-strain diagram c power-strain diagram d power-strain curve 36 which represents the maximum value of stress at which the stress-strain curve is linear. a proportionality limit b elastic limit c yield point d fracture point 37 which represents the maximum value of stress at which there is no permanent set. Even though the curve is not linear between the proportionality limit and the elastic limit, the material is still elastic in this region and if the load is removed at or below this point the specimen will return to its original length. a elastic limit b fracture point c yield point d proportionality limit 38 which represents the value of stress above which the strain will begin to increase rapidly. a yield point b proportionality limit c elastic limit d ultimate strength 39 The stress at the yield point is called the a yield strength b ultimate strength c fracture point d elastic limit 40 which is the maximum value of stress on the stress-strain diagram. a ultimate strength b elastic limit c proportionality limit d yield point 41 or the break point, which is the point at which the material fails and separates into two pieces a fracture point b yield point c ultimate strength d elastic limit 42 is the material’s ability of the material to resume its normal shape after being stretched or compressed. a elasticity b Plasticity c Yielding d Terminal velocity 43 is the material’s ability to undergo permanent deformation a non-reversible change of shape in response to applied forces. a plasticity b Terminal velocity c Aerodynamic drag d Elasticity 44 is a transition from elastic behavior to plastic behavior. a yielding b Elasticity c Plasticity d Terminal velocity

MECHANICAL PROPERTIES OF AB MATERIALS

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MECHANICAL PROPERTIES OF AB MATERIALSOnline version

by Grace Balahay

are those characteristics having to do with the change in shape and size of a material when forces are applied

is the applied force per unit area and may be expressed as Newtons per square meter (Pascals), pounds force per square inch, kilograms force per square meter, etc. The force may produce tension, shear, or compression within the sample.

involves both tension and compression.

involves only shear forces.

is a stress resulting from forces directed away from the sample. Stretching a rubber band produces tensile stress in the band.

is a stress resulting from forces directed at the sample and acting to push on, or compress, it.

is the stress that is tangential to the plane on which the forces act tending to change the sample's shape. It is produced like a tensile (or compressive) but the two pulling (or pushing) forces are offset from each other.

is that shear stress exerted on the sample resulting from a twisting

is the change, due to the applied force, in the size or shape of a body referred to its original size or shape. Is a dimensionless quantity, but it is frequently expressed in meters per meter, inches per inch, or percent.

refers to the ability of the material to withstand localized permanent deformation achieved typically from indention. It may also be used to describe deformation due to other actions such as cutting, abrasion, penetration, and scratching.

The type of deformation under consideration when measuring hardness is __________ in which the material will not return anymore to its original shape after being deformed.

is the maximum stress a material is capable of sustaining without failure.

is calculated utilizing the maximum load during a tension test and is based on the sample's original cross-sectional area

is a measure of the ability of a material to withstand a sudden load without failure.

is often erroneously referred to as impact strength, when in fact it is not about strength at all.

is sensitive to any particles, voids, or other inhomogeneities that act as flaws. Stresses concentrate around filter particles.

or flexural strength of a material is defined as its ability to resist deformation under load.

During a bending test described in ASTM D790 the maximum achieved flexural stress value is noted as

is a number that indicates how much sliding friction there is between two objects for a given normal force pushing them together.

factors that can affect the coefficient of friction

is the ability of the material to resume its normal shape after being stretched or compressed.

is calculated as the ratio of the stress to the corresponding strain in the linear portion of the stress vs. strain or force vs. deformation curve.

also known as plastic deformation, is the ability of a solid material to undergo permanent deformation, a non-reversible change of shape in response to applied forces. This property is visible when rice grains are processed into flat rice or oat grains are processed into oat meals

In engineering, the transition from elastic behavior to plastic behavior is known

relate how the material in motion in air or other gaseous fluids behaves when exposed to the motion of gaseous fluid and the forces acting on it.

a dimensionless quantity, is used to quantify the drag or resistance of an object in a fluid environment, such as air or water.

associated with a particular surface area

relate how the material in motion immersed in the fluid behaves when exposed to the motion of fluid and the forces acting on it.

is a measure of a fluid's resistance to flow. It is a quantity expressing the magnitude of internal friction, as measured by the force per unit area resisting a flow in which parallel layers unit distance apart have unit speed relative to one another.

is a measure of a fluid's internal resistance to flow under gravitational forces. It is determined by measuring the time in seconds, required for a fixed volume of fluid to flow a known distance by gravity through a capillary within a calibrated viscometer at a closely controlled temperature.

is the ratio of inertial forces to viscous forces. It is a dimensionless number used to categorize the fluids systems in which the effect of viscosity is important in controlling the velocities or the flow pattern of a fluid.

that angle which the a material starts to move down on an inclined flat surface due to the pull of gravity

The values of stress and strain determined from the tensile test can be plotted as a

which represents the maximum value of stress at which the stress-strain curve is linear.

which represents the value of stress above which the strain will begin to increase rapidly.

The stress at the yield point is called the

which is the maximum value of stress on the stress-strain diagram.

or the break point, which is the point at which the material fails and separates into two pieces

is the material’s ability of the material to resume its normal shape after being stretched or compressed.

is the material’s ability to undergo permanent deformation a non-reversible change of shape in response to applied forces.

is a transition from elastic behavior to plastic behavior.