5) A cylindrical capsule filled by liquid with SG = 1.5is falling inside an inclined pipe with 0 =15 °, asdepicted in the figure. The small space betweenthe capsule and the pipe is lubricated with an oilfilm that has viscosity (u =1.5 x 10-3Pa.s). Findthe steady rate of descent of a capsule withPipediameter d = 50 mm, and length I = 100 mmOil filmsliding inside a vertical smooth pipe that hasinside diameter D = 52 mm. Assume that theCapsulecapsule is concentric with the pipe as it falls.

We have to find the steady rate of descent of the capsule.

A cylindrical capsule filled by liquid with SG = 1.5 is falling inside an inclined pipe with 0 =15 °, as depicted in the figure. The small space between the capsule and the pipe is lubricated with an oil film that has viscosity (u =1.5 × 10-3Pa.s). Find the steady rate of descent of a capsule with diameter d = 50 mm, and length I = 100 mm Pipe Oil film sliding inside a vertical smooth pipe that has inside diameter D = 52 mm. Assume that the Capsule capsule is concentric with the pipe as it falls.

A cylindrical capsule filled by liquid with SG = 1.5 is falling inside an inclined pipe with 0 =15 °, as depicted in the figure. The small space between the capsule and the pipe is lubricated with an oil film that has viscosity (u =1.5 × 10-3Pa.s). Find the steady rate of descent of a capsule with diameter d = 50 mm, and length I = 100 mm Pipe Oil film sliding inside a vertical smooth pipe that has inside diameter D = 52 mm. Assume that the Capsule capsule is concentric with the pipe as it falls.

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

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