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Fig 1.

Long-period seismic design β spectrum with 5% damping ratio.

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Fig 1 Expand

Table 1.

The values of site characteristic period Tg.

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Table 1 Expand

Fig 2.

Schematic diagram of geometry and coordinate system of the circular tank.

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Fig 3.

Hydrodynamic pressure distribution of a circular tank in GB 50032–2003 code.

a) Along the height of the tank wall. b) Along the circumferential direction of the tank bottom.

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Table 2.

Hydrodynamic pressure coefficient fwc of a circular tank.

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Table 2 Expand

Fig 4.

Hydrodynamic pressure distribution of a circular tank in ACI 350.3–01 code.

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Fig 4 Expand

Table 3.

Structure characteristics of the circular tank.

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Table 4.

The Corresponding relationship between water storage capacity and water storage height.

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Table 4 Expand

Table 5.

Material properties of liquid water.

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Fig 5.

The stress-strain curve of the materials in the numerical simulation.

a) The concrete. b) The reinforcement.

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Fig 5 Expand

Fig 6.

The finite element models of tank A.

a) Tank body. b) Reinforcement bar. c) 30% water storage. d) 70% water storage.

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Fig 7.

Time-history curves of two seismic ground motions.

a) HSDB seismic ground motion. b) HX seismic ground motion. c) El Centro seismic ground motion. d) Tianjin seismic ground motion.

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Fig 7 Expand

Table 6.

Basic information of seismic ground motions.

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Table 6 Expand

Fig 8.

Response spectrums, mean response spectrum, and design response spectrum of earthquakes.

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Fig 8 Expand

Fig 9.

Time-history curves of two seismic ground motions.

a) A-10%. b) A-30%. c) A-50%. d) A-70%. e) B-70%. f) C-70%.

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Fig 9 Expand

Table 7.

Brief tank model features and dynamic characteristics results.

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Table 7 Expand

Fig 10.

Diagram showing position of extraction points for A-50% condition.

a)Points on the tank wall. b) Points in the circumferential and radial directions of the tank bottom.

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Fig 10 Expand

Table 8.

Comparison of calculation results for hydrostatic pressure.

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Table 8 Expand

Fig 11.

Maximum hydrodynamic pressure distributions at the tank wall at 1.0 m/s2 peak acceleration.

a) A-10% condition. b) A-30% condition. c) A-50% condition. d) A-70% condition. e) B-70% condition. f) C-70% condition.

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Fig 11 Expand

Fig 12.

Maximum hydrodynamic pressure distributions of the tank bottom at 1.0 m/s2 peak acceleration.

a) A-10% condition. b) A-30% condition. c) A-50% condition. d) A-70% condition. e) B-70% condition. f) C-70% condition.

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Fig 12 Expand

Fig 13.

Maximum hydrodynamic pressure distributions in the circumferential direction at the tank bottom at 1.0 m/s2 peak acceleration for the A-50% condition.

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Fig 13 Expand

Table 9.

The maximum hydrodynamic pressure of the tank wall under unidirectional main seismic motion with 1.0 m/s2 peak acceleration for A-50% condition (KPa).

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Table 9 Expand

Table 10.

The maximum hydrodynamic pressure of the radial direction for tank bottom under unidirectional main seismic motion with 1.0 m/s2 peak acceleration for A-50% condition (KPa).

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Table 10 Expand

Table 11.

The maximum hydrodynamic pressure of the circumferential direction for tank bottom under unidirectional main seismic motion with 1.0 m/s2 peak acceleration for A-50% condition (KPa).

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Table 11 Expand

Fig 14.

Maximum hydrodynamic pressure distributions of a tank wall at different water storage heights under the same ground motion input with 1.0 m/s2 peak acceleration.

a) HSDB-EW seismic motion. b) JZGYF-NS seismic motion. c) PJW-NS seismic motion. d) BJ-EW seismic motion. e) CC-NS seismic motion. f) YL-NS seismic motion. g) HX-NS seismic motion. h) EL-NS seismic motion. i) TJ-NS seismic motion.

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Fig 14 Expand

Fig 15.

Maximum hydrodynamic pressure distributions of the tank wall at different tank radii input with 1.0 m/s2 peak acceleration.

a) HSDB-EW seismic motion. b) JZGYF-NS seismic motion. c) PJW-NS seismic motion. d) BJ-EW seismic motion. e) CC-NS seismic motion. f) YL-NS seismic motion. g) HX-NS seismic motion. h) EL-NS seismic motion. i) TJ-NS seismic motion.

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Fig 15 Expand

Table 12.

Coefficient of impulsive hydrodynamic pressure fw1 for a ground-level circular tank.

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Table 12 Expand

Fig 16.

Hydrodynamic pressure distributions of the ground rested circular RC tank.

a) Along the height of the tank wall. b) Along the circumferential direction of the tank bottom.

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Table 13.

The maximum hydrodynamic pressure PWD,x of the whole tank under unidirectional main seismic motion with 1.0 m/s2 peak acceleration (KPa).

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Table 14.

The maximum hydrodynamic pressure PWD,y of the whole tank under unidirectional secondary seismic motion with 1.0 m/s2 peak acceleration (KPa).

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Table 15.

The maximum hydrodynamic pressure PWD,2 of the whole tank under bi-directional seismic motions with 1.0 m/s2 peak acceleration (KPa).

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