App Logo

No.1 PSC Learning App

1M+ Downloads
A thin walled cylindrical vessel of wall thickness 't' and diameter 'd' is filled with gas to a gauge pressure of p, the maximum shear stress on the pressure wall will be

Apd4t+p2\frac{pd}{4t}+\frac p2

Bpd8t+p2\frac{pd}{8t}+\frac p2

Cpd8t\frac{pd}{8t}

Dpd4t\frac{pd}{4t}

Answer:

pd8t\frac{pd}{8t}

Read Explanation:

The maximum shear stress on the pressure wall of a thin walled cylindrical vessel filled with gas at gauge pressure p, with wall thickness t and diameter d is pd/8t. This is the in- plane shear stress, which ignores the third principal stress. The longitudinal stress is pd/4t and the hoop stress is 2pd/4t. The maximum shear stress formula is (σhσL)/2(\sigma_{h} - \sigma_{L}) / 2 where σh\sigma_{h} is hoop stress and σL\sigma_{L} is longitudinal stress.

Related Questions:

Calculate the circumferential stress on a thin-walled pressure tank that experiences an internal pressure of 4 MPa and external pressure of 2.5 MPa. The tank is 50 mm thick with a diameter of 200 mm.
Which of the following is the formula for circumferential stress in a thin-walled cylinder? (Where d = diameter of shell and t = thickness of shell)
Water is flowing in a pipe of 200 cm diameter under a pressure head of 10000 cm. The thickness of the pipe wall is 0.75 cm. The tensile stress in the pipe wall in MPa is:
Hoop stress in thin walled cylinder is
For a thin spherical shell subjected to internal pressure, the ratio of volumetric strain to diametrical strain is.