A cast aluminum cylinder of a portable hydraulic riveter is d 210mm in diameter. The pressure of the fluid is p 16N/mm2 by gauge. Determine suitable thickness of the cylinder wall assuming that the yield point stress is A 444MPA and factor of safety of B 6.Calculate the tangential and radial stresses at the inner, middle radius and outer surfaces.

A cast aluminum cylinder of a portable hydraulic riveter is d 210mm in diameter. The pressure of the fluid is p 16N/mm2 by gauge. Determine suitable thickness of the cylinder wall assuming that the yield point stress is A 444MPA and factor of safety of B 6.Calculate the tangential and radial stresses at the inner, middle radius and outer surfaces.

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

See similar textbooks

Similar questions

A cylindrical water tank of 10 m high is to be filled with water. The tangential and longitudinal stress in the tank is limited to 150 MPa and 100 MPa respectively. Calculate the maximum diameter of the tank with thickness 10 mm.
The steel wire working a signal is 750 m long and 0.5 cm diameter. Assuming a pull on the wire of 1.5 kN, find the movement which must be given to the signal-box end of the wire if the movement at the signal end is to be 17.5 cm. Take Young's modulus as 200 GN/m2
Compare the pressure in question 1A to the pressure in 4A and explain any differences. I got question 1A to the pressure P=145.3atm or 147.53kPa I got question 4A to the pressure 1.4357atm
A 4 m long metal cylinder with an external diameter of 600 mm anda wall thickness of 10 mm is filled with water at a pressure of 35 Bar. Young's modulus E = 60 GPa, Poisson's ratio v = 0.3 Calculate the hoop stress, OH, in megapascals (MPa) correct to two decimal places. OH: MPа Calculate the longitudinal stress, L, in megapascals (MPa) correct to two decimal places. OL: MPа Hence, calculate the maximum strain, eH, in the cylinder. Enter your answer in micro-strain correct to two decimal places: EH micro-strain
A strain gauge measured the hoop stress on the surface of the tank as 414,474 Pa. The tank diameter is 18 cm and the wall thickness is 1.8 mm. What is the gauge pressure inside the tank in kPa? keep answer to 3 sig. figs.
A strain gauge measured the hoop stress on the surface of the tank as 285,807 Pa. The tank diameter is 17 cm and the wall thickness is 1.3 mm. What is the gauge pressure inside the tank in kPa? enter 3 significant figures.
The pressurized tank gives a reading of 100 * 10^-6, the inner diameter is 1.5 m, and the thickness is 25 mm, modulus of elasticity is 200GPA, and Poisson's ration of 1/3, b can be ignored find pressure in tank, max in plane shear stress, absolute max shear stress, and draw mohrs circle
A water tank, 7 m diameter, is made from steel plates that are 12.5 mm thick. Find the maximum height to which the tank may be filled if the circumferential stressis limited to 42 N/mm?. The specific weight of water is 9.81 kN/m³.
A thin-walled hollow sphere 3.8 m in diameter holds helium gas at 1767 kPa. Determine the minimum wall thickness of the sphere in mm if its allowable stress is 84.8 MPa.
The piston shown in figure is held in equilibrium by thepressure of the gas flowing through the pipe. The pressurespI = 350 kPa, pII = 130 kPa, and pressure of the gas pIII =210 kPa. Find the mass of the piston. Ans: 80.1 kg Hints: Consider a free body diagram of the piston andidentify the different forces the piston is subjected to get theweight of the piston. The weight of the piston isnumerically equal to its mass since g is not given meaningat standard gravity
A 2 m long metal cylinder with an external diameter of 700 mm and a wall thickness of 45 mm is filled with water at a pressure of 10 Bar. Young's modulus E = 80 GPa, Poisson's ratio v = 0.3 Calculate the hoop stress, oH, in megapascals (MPa) correct to two decimal places. MPa Calculate the longitudinal stress, OL, in megapascals (MPa) correct to two decimal places. MPa Hence, calculate the maximum strain, ɛH, in the cylinder. Enter your answer in micro-strain correct to two decimal places: EH micro-strain
The cylindrical steel tank shown is 3.5m in diameter 5m high and filled with brine solution. Brine has a density of 1198kg/m3. The thickness of the steel shell is 12.5mm. Calculate the tangential stress and the longitudinal stress in the tank, MPa