RFR Ch. 3 | Questions and Answers
1. Accommodating the type and MAGNITUDE of the to which the structure will be
subjected is the most critical aspect of engineering design: FORCES
2. The ability to understand and evaluate these forces distinguishes a
knowledge of buildings from a knowledge: casual
professional
3. In physics: Any interaction that may change the motion of an object: -
FORCES
4. Any effect that a structure must be designed to resist, including the forces of gravity, wind, earthquakes, or
soil pressure.: LOAD
5. Any effect that a structure must be designed to resist, including the forces of , , or
pressures: gravity, wind, earthquakes or soil pressures
6. Factors that work against the strength of any piece of apparatus, equipment, or structural support.: STRESS
7. Measurement of force intensity is
calculated as DIVIDED BY :-
FORCE DIVIDED BY AREA
8. Condition of balance that exists when a structural system is capable of supporting the applied load:
EQUILIBIRIUM
9. must equal or surpass the applied to achieve structural equilibri- um:
REACTIONS
LOADS
10. applied load on a beam will stress each of the supports equally.: UNI- FORMLY
11. To calculate the structural supports needed to allow a building to with- stand common , loads are
categorized and calculated: FORCES
12. To calculate the structural supports needed to allow a building to with- stand common FORCES, are
categorized and calculated: LOADS
13. LOADS ARE AND : CATEGORIZED AND CALCULATED
14. The forces within a structural support system that resist applied loads are referred to as : REACTIONS
15. When a structural support system can support a load equal to or greater than the applied loads L, ex- ists:
EQUILIBRIUM
16. Loss of equilibrium can lead to partial or total collapse. In a sense, when the building into a pile of debris on
the ground, is reestablished.: - EQUILIBRIUM
DISINEGRATES
, RFR Ch. 3 | Questions and Answers
17. One common type of is a bending moment within a structural
component that is loaded .: reaction
HORIZONTAL
VERTICALLY
18. A reaction within a structural component that opposes a vertical load.: -
BENDING MOMENT
19. When the is exceeded, the component will fail: bending moment
20. Bending can be calculated from the bending : STRESS
moment
21. is equal to the object's weight: FORCE
22.The force of gravity manifests as different types of on a structure: loads
23. The is the most common load imposed on a structure via the weight of the
structure's components, contents, and any occupancy activity.-
: force of gravity
24. -related factors significantly influence structural plans: gravity
25. Horizontal movement of air relative to the surface of the . is...: earth
WIND
26. Additional added to the structure will also increase the that must
be supported by a building's supports, and in turn, the beneath the
structure: forces
load
soil
27. Additional forces follow::
28.
: VIBRATION
TTEMPERTURE
SHRINKAGE
29.Shaking motion: vibration
30. Sources of vibration can include:
-
: natural
building related
, RFR Ch. 3 | Questions and Answers
external
, RFR Ch. 3 | Questions and Answers
31.These differences can change the direction of forces between structural element: temperature
temperature
direction
temperature
32.As lumber dries overtime, the dimensions of wooden structural compo- nents : shrink
33.This change of dimension_can affect the direction of forces within struc- tural components: shrinkage
34. within a material are classified according to the direction of the force_: -
stresses
35.Vertical or horizontal force that pulls material apart;: tension
36.Squeezes the material: compression
37.Slides one plane of a material past an adjacent plane.: shear
38. in a structural member that tends to stretch the member or pull it apart;: -
tensile stress
39.Vertical and/ or horizontal forces that push the mass of a material togeth- er;: compression
40.often used to denote the greatest amount of force a component can withstand without failure.:
tensile stress
41.resulting when two forces act on a body in opposite directions in parallel adjacent planes.: shear stress
42.Theoretical slice of a 3-dimensional structural component to enable area and stress calculations.: cross-
sectional
43.The of the stresses is important because material properties have unique tolerances.:
direction of interior
44.Structural members may be constructed in specific and to control
multiple within the allowable values for the particular mate- rial being used.: shapes and sizes
stress
45._ _ create tension in the bottom of a beam and compressive in the
top of a beam: loads
stresses
stresses
1. Accommodating the type and MAGNITUDE of the to which the structure will be
subjected is the most critical aspect of engineering design: FORCES
2. The ability to understand and evaluate these forces distinguishes a
knowledge of buildings from a knowledge: casual
professional
3. In physics: Any interaction that may change the motion of an object: -
FORCES
4. Any effect that a structure must be designed to resist, including the forces of gravity, wind, earthquakes, or
soil pressure.: LOAD
5. Any effect that a structure must be designed to resist, including the forces of , , or
pressures: gravity, wind, earthquakes or soil pressures
6. Factors that work against the strength of any piece of apparatus, equipment, or structural support.: STRESS
7. Measurement of force intensity is
calculated as DIVIDED BY :-
FORCE DIVIDED BY AREA
8. Condition of balance that exists when a structural system is capable of supporting the applied load:
EQUILIBIRIUM
9. must equal or surpass the applied to achieve structural equilibri- um:
REACTIONS
LOADS
10. applied load on a beam will stress each of the supports equally.: UNI- FORMLY
11. To calculate the structural supports needed to allow a building to with- stand common , loads are
categorized and calculated: FORCES
12. To calculate the structural supports needed to allow a building to with- stand common FORCES, are
categorized and calculated: LOADS
13. LOADS ARE AND : CATEGORIZED AND CALCULATED
14. The forces within a structural support system that resist applied loads are referred to as : REACTIONS
15. When a structural support system can support a load equal to or greater than the applied loads L, ex- ists:
EQUILIBRIUM
16. Loss of equilibrium can lead to partial or total collapse. In a sense, when the building into a pile of debris on
the ground, is reestablished.: - EQUILIBRIUM
DISINEGRATES
, RFR Ch. 3 | Questions and Answers
17. One common type of is a bending moment within a structural
component that is loaded .: reaction
HORIZONTAL
VERTICALLY
18. A reaction within a structural component that opposes a vertical load.: -
BENDING MOMENT
19. When the is exceeded, the component will fail: bending moment
20. Bending can be calculated from the bending : STRESS
moment
21. is equal to the object's weight: FORCE
22.The force of gravity manifests as different types of on a structure: loads
23. The is the most common load imposed on a structure via the weight of the
structure's components, contents, and any occupancy activity.-
: force of gravity
24. -related factors significantly influence structural plans: gravity
25. Horizontal movement of air relative to the surface of the . is...: earth
WIND
26. Additional added to the structure will also increase the that must
be supported by a building's supports, and in turn, the beneath the
structure: forces
load
soil
27. Additional forces follow::
28.
: VIBRATION
TTEMPERTURE
SHRINKAGE
29.Shaking motion: vibration
30. Sources of vibration can include:
-
: natural
building related
, RFR Ch. 3 | Questions and Answers
external
, RFR Ch. 3 | Questions and Answers
31.These differences can change the direction of forces between structural element: temperature
temperature
direction
temperature
32.As lumber dries overtime, the dimensions of wooden structural compo- nents : shrink
33.This change of dimension_can affect the direction of forces within struc- tural components: shrinkage
34. within a material are classified according to the direction of the force_: -
stresses
35.Vertical or horizontal force that pulls material apart;: tension
36.Squeezes the material: compression
37.Slides one plane of a material past an adjacent plane.: shear
38. in a structural member that tends to stretch the member or pull it apart;: -
tensile stress
39.Vertical and/ or horizontal forces that push the mass of a material togeth- er;: compression
40.often used to denote the greatest amount of force a component can withstand without failure.:
tensile stress
41.resulting when two forces act on a body in opposite directions in parallel adjacent planes.: shear stress
42.Theoretical slice of a 3-dimensional structural component to enable area and stress calculations.: cross-
sectional
43.The of the stresses is important because material properties have unique tolerances.:
direction of interior
44.Structural members may be constructed in specific and to control
multiple within the allowable values for the particular mate- rial being used.: shapes and sizes
stress
45._ _ create tension in the bottom of a beam and compressive in the
top of a beam: loads
stresses
stresses