Problem 3:One hollow cylinder is shrink-fitted inside another. Both cylinders have length L and both the flat faces of eachcylinder are constrained in the axial direction. They are free to move in radial and tangential directions. Bothcylinders are made of the same material steel. New steel material will be created.CylinderInner CylinderFIGURE 1 SHRINK FIT ASSEMBLYOutside CylinderSteel: E = 30 x 106 psiInside Radiusr;=4"R₁=6"FIGURE 2 EXPLODED VIEW OF SHRINKFIT ASSEMBLYOutside Radiusr=6.005"R₂=8"LengthL = 5"L = 5"An internal pressure P = 30,000 psi is applied on the inner surface of the inner cylinder.What to Submit:1. Find the tangential stress distribution at the outside surface of the outer cylinder (r = 8").2. Find the tangential stress distribution at the inner surface of the inner cylinder (r = 4")3. Find the contact pressure developed at the interference location.

One hollow cylinder is shrink-fitted inside another. Both cylinders have length L and both the flat faces of each cylinder are constrained in the axial direction. They are free to move in radial and tangential directions. Both cylinders are made of the same material steel. New steel material will be created. Cylinder Inner Cylinder FIGURE 1 SHRINK FIT ASSEMBLY Outside Cylinder Steel: E = 30 x 106 psi Inside Radius r₁=4" R₁=6" FIGURE 2 EXPLODED VIEW OF SHRINK FIT ASSEMBLY Outside Radius r=6.005" R₂=8" Length L=5" L=5" An internal pressure P = 30,000 psi is applied on the inner surface of the inner cylinder. What to Submit: 1. Find the tangential stress distribution at the outside surface of the outer cylinder (r = 8"). 2. Find the tangential stress distribution at the inner surface of the inner cylinder (r = 4") 3. Find the contact pressure developed at the interference location.

One hollow cylinder is shrink-fitted inside another. Both cylinders have length L and both the flat faces of each cylinder are constrained in the axial direction. They are free to move in radial and tangential directions. Both cylinders are made of the same material steel. New steel material will be created. Cylinder Inner Cylinder FIGURE 1 SHRINK FIT ASSEMBLY Outside Cylinder Steel: E = 30 x 106 psi Inside Radius r₁=4" R₁=6" FIGURE 2 EXPLODED VIEW OF SHRINK FIT ASSEMBLY Outside Radius r=6.005" R₂=8" Length L=5" L=5" An internal pressure P = 30,000 psi is applied on the inner surface of the inner cylinder. What to Submit: 1. Find the tangential stress distribution at the outside surface of the outer cylinder (r = 8"). 2. Find the tangential stress distribution at the inner surface of the inner cylinder (r = 4") 3. Find the contact pressure developed at the interference location.

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

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