Problem 2 The steel water pipe has an inner radius of 6 in and wall thickness 0.25 in. (1) If the valve A is open and the flowing water is under a gauge pressure of 240 psi. Determine the longitudinal and hoop stress developed in the all of the pipe. (2) If the valve A is closed. Determine the longitudinal and hoop stress developed in the all of the pipe.

Problem 2 The steel water pipe has an inner radius of 6 in and wall thickness 0.25 in. (1) If the valve A is open and the flowing water is under a gauge pressure of 240 psi. Determine the longitudinal and hoop stress developed in the all of the pipe. (2) If the valve A is closed. Determine the longitudinal and hoop stress developed in the all of the pipe.

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

See similar textbooks

Similar questions

suppo W given that the top edge of the pipe must have zero stress at the section where the [8,022; 41,23 k
When the temperature is at 30°C, the A-36 steel pipe fits snugly between the two fuel tanks. When fuel flows through the pipe, it causes the temperature to vary along the pipe as T = (5 3 x2 - 20x + 120)°C, where x is in meters. Determine the normal stress developed in the pipe. Assume each tank provides rigid support at A and B.
a. Determine the magnitude and direction of the hydrostatic force acting on the gate using PRESSURE PRISM CONCEPT. Illustrate and label the pressure diagram/prism as part of your solution. Express your answer in kips. b. Determine the magnitude and direction of the force exerted on the plate by the ridge. Illustrate and label the FBD of the force system. Express your answer in kips.
Problem 2 (for all students). Determine the state of stress, the principal stress and the max in- plane shear stress at point B on the cross section of the pipe at section a – a. Indicate the results on a differential element at the point. a 300 mm B, 300 mm a |6 kN B.50 mm TA - 40 mm Section a - a
A 60-inch diameter steel pipe, 3/8 inch thick carries water under a pressure head of 550 ft. Determine the hoop stress in the steel, in psi. Select the correct response
X Your answer is incorrect. The copper pipe [G - 7,000 ksi] has an outside diameter of 3.250 in. and a wall thickness of 0.250 in. The pipe is subjected to a uniformly distributed torque of t- 80 lb-ft/ft along its entire length. Using a - 2.0 ft, b- 3.5 ft, and c- 7.0 ft, determine (a) the maximum shear stress in the pipe. (b) the rotation angle oc at the free end of the shaft. B Answers: (a) Tmax- i 10080 ksi (b) oc - i 2045.71 rad
*10-44. A single strain gauge, placed in the vertical plane on the outer surface and at an angle of 30° to the axis of the pipe, gives a reading at point A of ,- -200(10). Determine the principal strains in the pipe at point A. The pipe has an outer diameter of 2 in. and an inner diameter of 1 in. and is made of A-36 steel. 2.5 ft 30 1.58 A O Probs. 10-43/44 =
3. A spherical pressure vessel has a D (mm) inner radius and thickness of 45mm. It is constructed by joining two hollow hemispheres connected by 10nos of 28mm dia bolts along the circumference. Working tensile stress of the vessel is 40 MPa while the tensile stress of the bolt is (o) MPa. (a) What is the maximum allowable internal pressure considering only the capacity of the bolts? (b) What is the maximum allowable internal pressure considering only the capacity of the vessel? (c) What is the maximum allowable internal pressure of the structure in Megapascals Assume: D = 761 σ = 461
SECTION: 500mm 20 KN I5 KNIM 1000 mm 12 m Ps 800 KN e : 400 mm (ASSUME IS % LOS SES) A. Determine the stress at the bottom in the free end. (MPa) B. Determine the stress at the top in the fixed end. (MPa)
Calculate the shear stress in MPa at section B A 100 mm F-10EN 10 mm
Problem (A) Find the thickness of metal necessary for a cylindrical shell of internal diameter 160 mm to withstand an internal pressure of 8 N/mm². The maximum hoop stress i the section is not to exceed 35 N/mm² probaken (b).Determine the maximum and minimum hoop stress across the section of a pipe of 400 mm internal diameter and 100 mm thick, when the pipe contains a fluid at a pressure of 8 N/mm². Also sketch the radial pressure distribution and hoop stress distribution across the section
Strain in rods is zero prior to applying load Determine load P such that the axial stress in the steel pipe is 200 MPa P Imm GAP RIGIO PLATE .6m B RIGID SUPPORT 30 mm x 30 mm. AL BAR E = 73 GPA 100 mm E = 200 G PO A B A ØSTEEL PIPE w/ 5mm WALL