Our experts have gathered these Foundation Engineering MCQs through research, and we hope that you will be able to see how much knowledge base you have for the subject of Foundation Engineering by answering these multiple-choice questions.
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A. Shallow and deep
B. Man-made and natural
C. Temporary and permanent
D. Metallic and non-metallic
A. Distribute the weight of the structure over a large area
B. Cause unequal settlement
C. Avoid overloading the underlying soil
D. Support the structure
A. To support a structure
B. To prevent a structure from moving
C. To provide access to a structure
D. To protect against fire
A. To provide a level surface for construction.
B. To be a shortcut between the Pacific and Atlantic oceans
C. To increase tourism in Panama
D. To promote exploration and trade
A. To provide a place to store extra materials
B. To make the structure more aesthetically pleasing
C. To prevent overloading
D. To make the structure more flexible
A. To make the structure more aesthetically pleasing
B. To increase stability and prevent overloading
C. To prevent corrosion
D. To increase the lifespan of the structure
A. To guy the climbers
B. To support the structure laterally
C. To prevent lateral movements of the supported structure
D. To provide extra support for climbing
A. To prevent the structure from collapsing.
B. To prevent lateral movements of the supported structure.
C. To support the weight of the structure.
D. To provide stability to the structure.
A. Result in a better design
B. Make the structure more stable
C. Stop any form of settlement
D. Sustain and transmit the dead and the imposed loads to the soil
A. To transfer loads to the soil without resulting in any form of settlement
B. To support the dead and imposed loads
C. To solely transfer the dead and imposed loads
D. To sustain the dead and imposed loads
A. By having a flexible base for the foundation
B. By having a rigid base for the foundation
C. By having a uniform load
D. By having a deep foundation
A. Areas where the superimposed loads are not uniform in nature.
B. Areas where the groundwater level is high.
C. Areas where the rainfall is high.
D. Areas where the temperature is high.
A. To provide a more stable foundation.
B. To make the building more aesthetically pleasing.
C. To guard against damage or distress caused by shrinkage and swelling due to temperature changes.
D. To allow for a bigger building.
A. To guard against any form of damage or distress caused by shrinking or swelling due to temperature changes.
B. To make the building more stable.
C. So the building will appear taller.
D. To make the foundationSTRONGER.
A. Not affected or influenced by future works or factors
B. On level ground
C. In an area with a lot of traffic
D. Near a water source
A. So that the foundation is not disturbed in the future
B. So that the foundation will be of better quality
C. So that the foundation will be cheaper
D. So that the foundation will be easier to build
A. Grillage
B. Piling
C. Concrete
D. Masonry
A. Spreading the weight on the ground and raising the timber off the ground
B. To support a single load-bearing point
C. To support a load-bearing beam
D. To support a load-bearing wall
A. They can rust over time
B. They can be unstable
C. They are not as strong as mortar
D. They are not as strong as steel
A. Stones are more expensive than mortar
B. Stones do not require painted after construction.
C. Stones are more difficult to work with than mortar
D. Stones are less durable than mortar
A. 10 tonnes/m2
B. 20 tonnes/m2
C. 15 tonnes/m2
D. 5 tonnes/m2
A. More than 10 tonnes/m2
B. More than 100 tonnes/m2
C. Equal to 10 tonnes/m2
D. Less than 10 tonnes/m2
A. The frost line is the optimal depth for planting trees.
B. The frost line is the temperature at which water freezes.
C. The frost line is the depth to which the ground freezes over in winter.
D. The frost line is the limit to how deep a footing can be.
A. Pads
B. Footings
C. Concrete strips
D. Spread footing
A. Reaction Zone
B. Root Zone
C. Active Zone/Layer
D. Leached Zone
A. "Beam" may also refer to a metal I-beam, part of the structural support of the home or business.
B. A wooden support member consisting of dimensional lumber pieces sandwiched together to support floor joists and the above structure.
C. A support member composed of multiple layers of dimensional lumber that supports floor joists and the above structure.
A. Earth's crust
B. Bedrock
C. Soil
A. Above the ground level
B. On the ground level
C. Below the ground level
D. At the ground level
A. A wall that is straight
B. A wall that is bent or curved due to stress from expansive soil, structural failure, or other elements
C. A wall that is made of bricks
D. A wall that is load-bearing
A. A slab with wood flooring on top of it
B. A type of foundation
C. A state in the US
D. A type of dance
A. To create strong and lightweight man-made materials
B. To melt down and mold
C. To weave fabric
D. To fix cracks, strengthen bowing walls, and support failing foundation.
A. Gravel
B. Soil
C. Stones
D. Fine-grained naturally occurring material
A. Soil that is only susceptible to void formation and not erosion or reduction when water is added.
B. Soil that is susceptible to erosion, reduction, or void formation when water is added.
C. Soil that is not susceptible to erosion, reduction, or void formation when water is added.
D. Soil that is only susceptible to erosion and not reduction or void formation when water is added.
A. Just rocks
B. Sand, rocks, cement, water
C. Rocks and dirt
D. Cement and water
A. Support foundations
B. Support arches
C. Support bridges
D. Add decoration
A. Short and wide cylinders made of steel
B. Short and wide cylinders made of concrete
C. Long, slender cylinders made of steel
D. Long, slender cylinders made of concrete
A. 36"-42"
B. 24"-30"
C. 30"-36"
D. 18"-24"
A. Addition of water
B. Freezing
C. Exposure to air
D. Gradual water loss
A. The width of a foundation
B. The height of a foundation
C. The weight of a foundation
D. The amount of bending and bowing from a heavy load that a foundation may withstand without total failure
A. The foundation bends or bows more than expected under a heavy load.
B. The foundation can no longer bear any load without collapsing.
C. The foundation cracks or breaks under a heavy load.
D. The foundationsettles more than expected under a heavy load.
A. A type of soil
B. Uneven settlement that occurs when different parts of the foundation and structure are sinking at different rates.
C. A method of construction
D. The process of making a foundation level.
A. Elevation
B. Height
C. Level position
D. Central spot
A. Epoxy crack Implantation
B. Epoxy crack Isolation
C. Epoxy Crack Injection
D. Epoxy crack Incapacitation
A. Loamy Soil
B. Sandy Soil
C. Granular Soil
D. Expansive Soil
A. Compost
B. Soil that is added to an area to fill in, level, or grade that area.
C. Fertilizer
D. Loam
A. To protect the structure from water damage.
B. To transmit the load of the structure to the ground below.
C. To provide support for the structure.
D. To anchor the structure to the ground.
A. To spread out the vertical load of the foundation evenly.
B. To provide drainage for the foundation
C. To support the foundation walls
D. To waterproof the foundation
A. Soil volume
B. Moisture
C. PH level
D. Temperature
A. Frozen water
B. Soil freezing
C. Frost heaving
D. Expanding soil
A. The owner of the ground
B. The type of surface
C. The level of the ground surface
D. The color of the ground