B. S<0
C. 0<S<100
D. S>0
A. greater than specific gravity of soil
C. independent of specific gravity of soil
D. less than specific gravity of soil
B. calcium carbide method
C. sand bath method
D. pycnometer method
A. decrease in pore water pressure but increase in total stress
B. equal decrease in pore water pressure and total stress
D. increase in pore water pressure but decrease in total stress
A. sand bath method
C. oven drying method
D. alcohol method
A. all of the above
B. the stress at particles contact
C. a physical parameter that can be measured
A. 18.6 kN/m3
C. 22.0 kN/m3
D. 23.2 kN/m3
A. dry of OMC and wet of OMC
B. dry of OMC and dry of OMC where OMC is optimum moisture content
C. wet of OMC and wet of OMC
A. 167 mm
B. 30 mm
C. 15 mm
B. decreases by 33.3%
C. increases by 25%
D. increases by 33.3%
B. none of the above
C. cohesion
D. angle of repose
A. 36
C. 0.028
D. 0.036
B. falling head method
C. both the above
D. none of the above
A. cohesion only
C. both cohesion and angle of internal friction
A. much greater than that of clayey soils
C. almost equal to that of clayey soils
B. edge to face orientation
C. edge to edge orientation
D. all of the above
B. shrinkage limit
C. plastic limit
D. plasticity index
A. a gradual increase in neutral pressure and a gradual decrease in effective pressure takes place and sum of the two is constant
C. both neutral pressure and effective pressure decrease
D. both neutral pressure and effective pressure increase
A. increases
C. first increases and then decreases
D. remains unchanged
A. plane and smooth
B. vertical and rough
C. plane and rough
B. the principle of test
C. the method of preparation of soil suspension
A. Bearing capacity of a soil depends on the type of soil
C. Bearing capacity of a soil is indepen-dent of rate of loading
D. Bearing capacity of a soil depends upon shape and size of footing
A. unconsolidated drained test
C. unconsolidated undrained test
D. consolidated drained test
A. 0.0045 m3/sec
B. 0.1125m3/sec
D. 0.18m3/sec
A. Unit weight does not affect per-meability
C. The greater the unit weight, the smaller is permeability
D. The greater the viscosity, the greater is permeability
A. 25 mm
D. greater than 25 mm
A. clay
B. silt
C. clayey silt
A. is inversely proportional to the angle of internal friction of the soil
C. decreases with increase in normal stress
D. is directly proportional to the angle of internal friction of the soil
A. different for different types of soils but same for a soil under different states of consolidation
B. constant for any type of soil
D. independent of type of soil but depends on the stress history of soil
B. air content
C. percentage air voids
D. voids ratio
A. 22.5
B. 90
D. 0
A. -0.5
B. 2.0
D. 2
A. horizontal plane only
B. vertical plane only
C. both horizontal and vertical planes
A. compressibility
B. permeability
A. CH
B. SL
D. MH
A. coefficient of compressibility of an over-consolidated clay is greater than that of a normally consolidated clay
B. coefficient of compressibility is cons-tant for any clay
A. decrease in liquid limit and increase in plasticity index
B. decrease in liquid limit and no change in plasticity index
D. increase in both liquid limit and plasticity index
A. In a direct shear box test, the plane of shear failure is predetermined
B. Stress distribution on the failure plane in the case of triaxial compression test is uniform
D. Better control is achieved on the drainage of the soil in a triaxial compression test
A. 80%
B. 100%
C. 60%
A. deep well system
C. vacuum method
D. well ppint system
A. 4.75 mm to 2.00 mm
B. 0.425 mm to 0.075 mm
C. 2.00 mm to 0.425 mm
A. 1.0 and 0.5
B. 0.0 and 1.0
D. 1.0 and 0.0
A. Uniformity coefficient represents the shape of the particle size distribution curve
B. For a well graded soil, both uniformity coefficient and coefficient of curvature are nearly unity
C. A soil is said to be well graded if it has most of the particles of about the same size
A. n<0
B. 0<n0
B. increases with the decrease in the porosity of the soil
C. decreases with the decrease in the plastic limit
D. increases with the increase in the initial voids ratio
A. both meniscus correction and dispersing agent correction are additive
B. both meniscus correction and dispersing agent correction are subtractive
D. meniscus correction is subtractive and dispersing agent correction is additive
B. water
C. glaciers
D. wind
A. moisture content only
B. amount of compaction energy only
A. none of the above
C. kaolinite
D. illite
A. reduce both the active earth pressure intensity and passive earth pressure intensity
B. increase both the active earth pressure intensity and passive earth pressure intensity
D. increase the active earth pressure in-tensity but to reduce the passive earth pressure intensity
Showing 51 to 100 of 119 mcqs