Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel Solution

STEP 0: Pre-Calculation Summary
Formula Used
Decrease in Outer Diameter of Cylinder = Total Deformation of Pressure Vessel-Increase in Inner Diameter of Jacket
δc = δ-δj
This formula uses 3 Variables
Variables Used
Decrease in Outer Diameter of Cylinder - (Measured in Meter) - The Decrease in Outer Diameter of Cylinder Value is measured as the difference between total deformation of the pressure vessel and increase in the inner diameter of the jacket.
Total Deformation of Pressure Vessel - (Measured in Meter) - The Total Deformation of Pressure Vessel Value is measured as the sum of the increase in the inner diameter of the jacket and decrease in the outer diameter of cylinder.
Increase in Inner Diameter of Jacket - (Measured in Meter) - The Increase in Inner Diameter of Jacket Value is measured as the difference between the total deformation of a pressure vessel and decrease in outer diameter of the cylinder.
STEP 1: Convert Input(s) to Base Unit
Total Deformation of Pressure Vessel: 1.2 Millimeter --> 0.0012 Meter (Check conversion here)
Increase in Inner Diameter of Jacket: 0.4 Millimeter --> 0.0004 Meter (Check conversion here)
STEP 2: Evaluate Formula
Substituting Input Values in Formula
δc = δ-δj --> 0.0012-0.0004
Evaluating ... ...
δc = 0.0008
STEP 3: Convert Result to Output's Unit
0.0008 Meter -->0.8 Millimeter (Check conversion here)
FINAL ANSWER
0.8 Millimeter <-- Decrease in Outer Diameter of Cylinder
(Calculation completed in 00.004 seconds)

Credits

Created by Vaibhav Malani
National Institute of Technology (NIT), Tiruchirapalli
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National Institute Of Technology (NIT), Hamirpur
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10+ Bolt of Pressurized Cylinder Calculators

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Go Thickness of pressurized cylinder wall = (Inner diameter of pressurized cylinder/2)*((((Permissible Tensile stress in pressurized cylinder+Internal pressure on cylinder)/(Permissible Tensile stress in pressurized cylinder-Internal pressure on cylinder))^(1/2))-1)
Internal Diameter of Pressurized Cylinder
Go Inner diameter of pressurized cylinder = 2*Thickness of pressurized cylinder wall/((((Permissible Tensile stress in pressurized cylinder+Internal pressure on cylinder)/(Permissible Tensile stress in pressurized cylinder-Internal pressure on cylinder))^(1/2))-1)
Maximum Load inside Pressurized Cylinder when Joint is on verge of opening
Go Maximum force inside pressurized cylinder = Initial Preload Due to Bolt Tightening*((Combined stiffness for gasket joint+Stiffness of pressurized cylinder bolt)/Stiffness of pressurized cylinder bolt)
Initial Preload due to Bolt tightening given kb and kc
Go Initial Preload Due to Bolt Tightening = Maximum force inside pressurized cylinder*(Stiffness of pressurized cylinder bolt/(Combined stiffness for gasket joint+Stiffness of pressurized cylinder bolt))
Change in External Load due to Pressure Inside Cylinder given kb and kc
Go Increase in Bolt Load of Cylinder = External load on pressurized cylinder bolt*(Stiffness of pressurized cylinder bolt/(Combined stiffness for gasket joint+Stiffness of pressurized cylinder bolt))
External Load on Bolt due to Internal Pressure given kb and kc
Go External load on pressurized cylinder bolt = Increase in Bolt Load of Cylinder*((Combined stiffness for gasket joint+Stiffness of pressurized cylinder bolt)/Stiffness of pressurized cylinder bolt)
Change in External Load on Bolt due to Pressure Inside Cylinder
Go Increase in Bolt Load of Cylinder = Resultant load on pressurized cylinder bolt-Initial Preload Due to Bolt Tightening
Initial Preload due to Bolt tightening
Go Initial Preload Due to Bolt Tightening = Resultant load on pressurized cylinder bolt-Increase in Bolt Load of Cylinder
Resultant Load on Bolt given Pre load
Go Resultant load on pressurized cylinder bolt = Initial Preload Due to Bolt Tightening+Increase in Bolt Load of Cylinder
Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel
Go Decrease in Outer Diameter of Cylinder = Total Deformation of Pressure Vessel-Increase in Inner Diameter of Jacket

Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel Formula

Decrease in Outer Diameter of Cylinder = Total Deformation of Pressure Vessel-Increase in Inner Diameter of Jacket
δc = δ-δj

What is a Pressure Vessel?

A pressure vessel is a container designed to hold gases or liquids at a pressure substantially different from the ambient pressure.

How to Calculate Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel?

Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel calculator uses Decrease in Outer Diameter of Cylinder = Total Deformation of Pressure Vessel-Increase in Inner Diameter of Jacket to calculate the Decrease in Outer Diameter of Cylinder, Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel formula is defined as the difference between the total deformation and increase in the inner diameter of the jacket. Decrease in Outer Diameter of Cylinder is denoted by δc symbol.

How to calculate Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel using this online calculator? To use this online calculator for Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel, enter Total Deformation of Pressure Vessel (δ) & Increase in Inner Diameter of Jacket j) and hit the calculate button. Here is how the Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel calculation can be explained with given input values -> 800 = 0.0012-0.0004.

FAQ

What is Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel?
Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel formula is defined as the difference between the total deformation and increase in the inner diameter of the jacket and is represented as δc = δ-δj or Decrease in Outer Diameter of Cylinder = Total Deformation of Pressure Vessel-Increase in Inner Diameter of Jacket. The Total Deformation of Pressure Vessel Value is measured as the sum of the increase in the inner diameter of the jacket and decrease in the outer diameter of cylinder & The Increase in Inner Diameter of Jacket Value is measured as the difference between the total deformation of a pressure vessel and decrease in outer diameter of the cylinder.
How to calculate Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel?
Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel formula is defined as the difference between the total deformation and increase in the inner diameter of the jacket is calculated using Decrease in Outer Diameter of Cylinder = Total Deformation of Pressure Vessel-Increase in Inner Diameter of Jacket. To calculate Decrease in Outer Diameter of Cylinder given Total deformation in Pressure Vessel, you need Total Deformation of Pressure Vessel (δ) & Increase in Inner Diameter of Jacket j). With our tool, you need to enter the respective value for Total Deformation of Pressure Vessel & Increase in Inner Diameter of Jacket and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
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